An installation instruction of the program realizing the proof of the existence of homoclinic and heteroclinic orbits in the hyperchaotic Rossler system as described in the paper

Daniel Wilczak "Abundance of heteroclinic and homoclinic orbits for the hyperchaotic Rossler system"

Minimal requirements:

Compiler - The program must be compiled with gcc-3.4 or newer.

Remarks:

The program executes (in parallel mode) approximately 3 hours on a computer with 8 Quad-Core AMD Opteron(tm) 8354 processors. I strongly recommend to compile the program on a fast multiprocessor computer in parallel mode (see below how to use parallel version).

Installation instruction under linux:

  1. unpack the archive
    tar xfvz rossler4d.tgz

  2. change directory to 'rossler4d/program' and call 'make'.
    cd rossler4d/program
    make
    The last command generates an executable file rossler4d in the current directory.

  3. We may run the program
    ./rossler4d

Installation instruction under MS Windows with MinGW compiler:

The program has been tested under MS Windows XP Professional with gcc 3.4.4 compiler. We use the MinGW compiler (Minimalist GNU for Windows - http://www.mingw.org).
  1. please unpack the archive (using for example Total Commander)
  2. change directory to 'rossler4d/program' and call 'mingw32-make'.
    cd rossler4d/program
    mingw32-make
  3. The last command generates an executable file rossler4d.exe in the current directory.

Installation instruction under linux or MS Windows in parallel mode (recommended):

Additional requirements:

Compilation:

  1. unpack the archive
    tar xfvz rossler4d.tgz

  2. change directory to 'rossler4d/program' and call 'make' (or mingw32-make under MS Windows).
    cd rossler4d/program
    make parallel
    The last command generates an executable file rossler4d in the current directory.

  3. We may run the program
    ./rossler4d

Graphics version

Additional requirements:

Compilation:

If you have installed wxWidgets library (with devel packages):
  1. unpack the archive
    tar xfvz rossler4d.tgz

  2. change directory to 'rossler4d/program' and call 'make'.
    cd rossler4d/program
    make graph
    The last command generates an executable file rossler4d in the current directory.

  3. We may run the program
    ./rossler4d
After sucessfull compilation and run the program displays menu. You can choose from: nonrigorous simulation of all covering relations, rigorous proof which displays computed bounds or just exit the program.

NOTE:

More informations about libraries can be found on the web page of CAPD group: http://capd.ii.uj.edu.pl.