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GLVis visualization tool version 1.0 _/_/_/ _/ _/ _/ _/ _/ _/ _/ _/ _/_/_/ _/ _/_/ _/ _/ _/ _/ _/_/ _/ _/ _/ _/ _/ _/ _/_/ _/_/_/ _/_/_/_/ _/ _/ _/_/_/ http://glvis.googlecode.com GLVis is an OpenGL tool for visualization of finite element meshes and functions. For building instructions, see the file INSTALL. Copyright information and licensing restrictions can be found in the file COPYRIGHT. When started without any options, glvis starts a server which waits for a socket connections (on port 19916 by default) and visualizes any received data. This way the results of simulations on a remote (parallel) machine can be visualized on the local user desktop. On Mac OS X, start the server with 'glvis -mac'. GLVis can also be used to visualize a mesh with or without a finite element function (solution), as in 'glvis -m cube.mesh3d'. It can run a batch sequence of commands (GLVis scripts), or display previously saved socket streams. For a complete list of command line options, type 'glvis -h'. Depending on the data type, variety of manipulations can be performed by using the mouse and by typing (case sensitive) keystrokes in the GLVis window. Here is a partial list of the available functionality. Some of these keys can also be provided as input, using the '-k' command-line option and the 'keys' script command. Mouse functions =============== Left - Rotate the viewpoint Middle - Translate the viewpoint Right - Zoom in (up) / Zoom out (down) Left+Shift - Start spinning the viewpoint (according to dragging vector) Basic key commands ================== h - Prints a short help message in the terminal r - Reset the plot to 3D view R - Cycle through the six 2D projections (camera looking in +/- x/y/z direction) j - Turn on/off perspective s - Turn on/off unit cube scaling c - Display/Hide the colorbar p - Cycle through color palettes (lots of options, use F6 for a menu) t - Cycle materials and lights (5 states) l - Turns on/off the light g - Toggle background color (white -> black) a - Toggle the bounding box axes The options are: -> none -> bounding box with coordinates of the corners -> bounding box without coordinates m - Toggle the "mesh" state The options are: -> no mesh or level lines -> draw the element edges (i.e. the mesh) -> draw the level lines (use F5 to modify the level lines) e - Toggle the "elements" state (see below for vector functions) The options are: -> show surface elements (corresponding to the function) -> show no surface elements -> show surface elements corresponding to det(J) -> show surface elements corresponding to 1/det(J) S - Take an image snapshot (xwd format) or record a movie (in spinning mode) P - Print to a PostScript file (in non-texture mode) q - Exit Advanced key commands ===================== f - Change the shading type (the way the elements and mesh are drawn) The options are: -> one triangle / quad per element with a constant normal -> one triangle / quad per element with normals averaged at the vertices -> multiple triangles / quads per element, also allowing for the visualization of discontinuous functions and curvilinear elements (use i/I to control subdivisions) i/I - Control element subdivisions there are two subdivision factors: -> element subdivision factor s1 -> boundary subdivision factor s2 I - Cycle through the "subdivision functions", (prints a message in the terminal when changed) The options are: -> Increase subdivision factor: s1 += s2 -> Decrease subdivision factor: s1 -= s2 -> Increase bdr subdivision factor: s2++ -> Decrease bdr subdivision factor: s2-- i - perform the current "subdivision function" A - Turn on/off the use of thicker lines b - Display/Hide the boundary in 2D scalar mode L - Turn on/off logarithmic scale \ - Set light source position (see Right+Shift) * - Zoom in / - Zoom out [ - Enlarge the bounding box (relative to the colorbar) ] - Shrink the bounding box (relative to the colorbar) ( - Shrink the visualization window ) - Enlarge the visualization window . - Start/stop z-spinning (speed/direction can be controlled with '0'/'Enter') w - Toggle clipping (cutting) plane in 2D (see also 'i' in 3D) y/Y - Rotate clipping plane (theta) in 2D z/Z - Translate clipping plane in 2D ` - Toggle a ruler, with initial origin at the center of the bounding box. The origin can be later moved with '~'. The options are: -> none -> coordinate axes lines -> coordinate axes planes ~ - Enter new ruler origin k/K - Adjust the transparency level (works only when texture is off, see '!'). The balance of transparency can be further adjusted with ',' and '<'. ! - Toggle the use of (1D) texture (smooth interpolation of colors) The options are: -> use discrete texture, the number of colors used depends on the current palette -> use smooth texture (interpolated from current palette) -> do not use texture; colors are set at the vertices; color interpolation may be bad F3/F4 - Shrink/Zoom each element towards its center, to better visualize the different element shapes F5 - Change the range and number of the level lines F6 - Palette menu F7 - Change the minimum and maximum values Middle+Ctrl - Object translation Right+Ctrl - Object scaling (see also '[' and ']') Left+Alt - Tilt Right+Shift - Change light source position (see '\') Vector data commands ==================== v - Toggle the "vector" state (uses vector subdivision factor, accept u/U) The options are: -> do not show vectors -> show vectors as displacement -> show vector field; vectors are uniformly scaled; the color varies with the magnitude (or the current "vector-to-scalar function", see keys u/U) -> show vector field as above, but the vectors are scaled proportionally to their magnitude V - Change the scaling of the vectors relative to the default d - Toggle the "displaced mesh" state: (see also keys 'n'/'b') The options are: -> do not show displaced mesh -> show displaced mesh -> assuming displacement field show deformation using Cartesian lines -> assuming displacement field show deformation using polar lines n - increase the displacement amount in 10% steps, wraps around from 100% to 0% b - decrease the displacement amount in 10% steps, wraps around from 0% to 100% e - Toggle the "elements" state (vector data version) The options are: -> show surface elements corresponding to the current "vector-to-scalar function" -> do not show surface elements -> assuming a displacement field show det(J)/det(J_d) -> assuming a displacement field show det(J_d)/det(J) u/U - Change the "vector-to-scalar function" and the vector subdivision factor U - Toggle the functionality of 'u' (prints a message in the terminal when changed). The options are: -> Increase the vector subdivision factor -> Decrease the vector subdivision factor -> Cycle through "vector-to-scalar functions" choices: -> magnitude: sqrt(vx^2+vy^2) -> direction form -pi to pi: atan2(vy,vx) -> x-component: vx -> y-component: vy -> divergence: div(v) -> curl: curl(v) -> anisotropy in grad(v) 3D data commands ================ i - Toggle clipping (cutting) plane The options are: -> none -> cut through the elements -> show only elements behind the clipping plane x/X - Rotate clipping plane (phi) y/Y - Rotate clipping plane (theta) z/Z - Translate clipping plane E - Display/Hide the elements in the clipping plane M - Display/Hide the mesh in the clipping plane o/O - Refine/de-refine elements (similar to 'i' in 2D) u/U - Move level surface value up/down v/V - Add/Delete a level surface value w/W - Move boundary elements up/down in direction of the normal (i.e. "plot" the boundary values in normal direction) F3/F4 - Shrink/Zoom subdomain in a disjoint mesh F11/F12 - Shrink/Zoom elements in a disjoint mesh
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