Z209 from Hartmut Bossel's System Zoo 1 p112-118
Clone of Balancing an Inverted Pendulum
Model Z605 Miniworld, from System Zoo 3 by Hartmut Bossel
Clone of Z605 Miniworld
System Zoo Z106a: Simple population dynamics from System Zoo 1 by Hartmut Bossel
Clone of Clone of System Zoo Z106a: Simple population dynamics
System Zoo Z412 Tourism Dynamics from Hartmut Bossel (2007) System Zoo 2 Simulation Models. Climate, Ecosystems, Resources
Clone of REM 221 - Z412 Tourism Dynamics
System Zoo Z106a: Simple population dynamics from System Zoo 1 by Hartmut Bossel
Clone of System Zoo Z106a: Simple population dynamics
System Zoo Z404 Prey and two Predator Populations from Hartmut Bossel (2007) System Zoo 2 Simulation Models. Climate, Ecosystems, Resources
Often a single prey population is the source of food for several competing predators (e.g. mice as prey of foxes and birds of prey). Here again a reliable intuitive assessment of long-term development resulting from the particular system relationship is impossible. A simulation model can assist in recognizing development trends inherent in the system structure even if in reality a variety of other factors determine the development and may cause it to proceed on a somewhat different path.
Clone of REM 221 - Z404 Prey and two Predator Populations
System Zoo Z412 Tourism Dynamics from Hartmut Bossel (2007) System Zoo 2 Simulation Models. Climate, Ecosystems, Resources
Clone of REM 221 - Z412 Tourism Dynamics
System Zoo Z404 Prey and two Predator Populations from Hartmut Bossel (2007) System Zoo 2 Simulation Models. Climate, Ecosystems, Resources
Often a single prey population is the source of food for several competing predators (e.g. mice as prey of foxes and birds of prey). Here again a reliable intuitive assessment of long-term development resulting from the particular system relationship is impossible. A simulation model can assist in recognizing development trends inherent in the system structure even if in reality a variety of other factors determine the development and may cause it to proceed on a somewhat different path.
REM 221 - Z404 Prey and two Predator Populations
System Zoo Z105: Time-dependent growth from System Zoo 1 by Hartmut Bossel
System Zoo Z105: Time-dependent growth
Model Z605 Miniworld, from System Zoo 3 by Hartmut Bossel
Clone of Z605 Miniworld
System Zoo Z418 - Sustainable Use of a renewable resource from Hartmut Bossel (2007) System Zoo 2 Simulation Models. Climate, Ecosystems, Resources
Clone of REM 221 - Z418 - Sustainable Use of a renewable resource
System Zoo Z109: Logistic growth with constant harvest from System Zoo 1 by Hartmut Bossel
Bossel: Z109 Logistic growth with constant harvest
System Zoo Z104: Exponential delay from System Zoo 1 by Hartmut Bossel
Bossel: Z104 Exponential delay
An exploration of interactions among 'fuzzy' qualitative concepts that interact to produce either tolerance or violent conflict. Z509 p43-49 System Zoo 3 by Hartmut Bossel.
Clone of Aggression
System Zoo Z412 Tourism Dynamics from Hartmut Bossel (2007) System Zoo 2 Simulation Models. Climate, Ecosystems, Resources
Clone of REM 221 - Z412 Tourism Dynamics
System Zoo Z418 - Sustainable Use of a renewable resource from Hartmut Bossel (2007) System Zoo 2 Simulation Models. Climate, Ecosystems, Resources
Clone of REM 221 - Z418 - Sustainable Use of a renewable resource
Bipolar II treatment modeling using Van der Pol-like oscillators.
In this simulation an afflicted individual with Bipolar II disorder is put to treatment after 20 months the calibration of the medicine or treatment he recieves is such that it simulates the natural cycles of a "normal being". You can note by manipulating the parameters that sometimes too much treatment disrupts equilibria. Also note that in the state diagrams there are 2 limit cycles, the lower one being the healthiest as there are less changes.
Bipolar II dynamics
System Zoo Z404 Prey and two Predator Populations from Hartmut Bossel (2007) System Zoo 2 Simulation Models. Climate, Ecosystems, Resources
Often a single prey population is the source of food for several competing predators (e.g. mice as prey of foxes and birds of prey). Here again a reliable intuitive assessment of long-term development resulting from the particular system relationship is impossible. A simulation model can assist in recognizing development trends inherent in the system structure even if in reality a variety of other factors determine the development and may cause it to proceed on a somewhat different path.
Clone of REM 221 - Z404 Prey and two Predator Populations
System Zoo Z108: Overloading a buffer from System Zoo 1 by Hartmut Bossel
System Zoo Z108: Overloading a buffer
Z205 from System Zoo 1 p95-98
Clone of Chaotic Bistable Oscillator
Z207 from Hartmut Bossel System Zoo 1 p103-107
After running the default settings Bossel describes A=0.2, B=0.2, Initial Values X=0 Y=2 and Z=0 and varying C=2,3,4,5 shows period doubling and transition to chaotic behavior
Rossler Chaotic Attractor
System Zoo Z418 - Sustainable Use of a renewable resource from Hartmut Bossel (2007) System Zoo 2 Simulation Models. Climate, Ecosystems, Resources
Clone of REM 221 - Z418 - Sustainable Use of a renewable resource
System Zoo Z404 Prey and two Predator Populations from Hartmut Bossel (2007) System Zoo 2 Simulation Models. Climate, Ecosystems, Resources
Often a single prey population is the source of food for several competing predators (e.g. mice as prey of foxes and birds of prey). Here again a reliable intuitive assessment of long-term development resulting from the particular system relationship is impossible. A simulation model can assist in recognizing development trends inherent in the system structure even if in reality a variety of other factors determine the development and may cause it to proceed on a somewhat different path.
Clone of REM 221 - Z404 Prey and two Predator Populations
Z205 from System Zoo 1 p95-98
Clone of Chaotic Bistable Oscillator