Explore evolutionary processes in three unique worlds with detailed explanations and interactive simulations
Welcome to the oceanic ecosystem simulation, where we explore the evolution of marine organisms in a dynamic aquatic environment. The ocean represents one of the oldest and most diverse biomes on Earth, where life originated approximately 3.8 billion years ago.
In this simulation, we model a population of aquatic organisms that adapt to changing conditions: water temperature, plankton quantity, depth pressure and predator presence. Each organism has unique characteristics that determine its ability to survive and reproduce.
The oceanic environment creates unique evolutionary pressures. Organisms must adapt to:
Whales evolved from terrestrial mammals about 50 million years ago. Key adaptations include:
Initial species with average characteristics
Speed: ⭐⭐⭐ | Efficiency: ⭐⭐⭐The simulation is based on real evolutionary processes. Natural selection acts through differential survival and reproduction. Individuals with better adaptations to the aquatic environment have more chances to pass their genes to the next generation.
Genetic drift also affects evolution, especially in small populations. Random changes in allele frequencies can lead to loss of genetic diversity or fixation of neutral mutations.
It's important to understand that evolution has no "goal" - it's the result of interactions between genetic variation, natural selection, and random processes.
Forests represent some of the most complex and richest ecosystems on the planet. Here, countless evolutionary processes occur: from coevolution of plants and pollinators to mimicry in insects and symbiotic relationships between different species.
In this simulation, we explore the evolution of forest organisms in a multi-level ecosystem. We model interactions between different trophic levels: producers (plants), primary consumers (herbivores), and secondary consumers (predators).
Coevolution is the process of mutual evolutionary influence between closely interacting species. In forest ecosystems, the following types of coevolution are observed:
Orchids demonstrate the most extreme examples of coevolution with insect pollinators:
Result: over 25,000 orchid species with unique pollination strategies!
Imagine the evolution of life on an exoplanet with unique conditions: changing gravity, different atmospheric compositions, extreme temperatures and radiation exposure. This simulation explores how life could adapt to cosmic conditions.
Based on principles of astrobiology and exobiology, we model the evolution of organisms capable of surviving in space environments or on planets with conditions drastically different from Earth.
On Earth, there are organisms - extremophiles - capable of surviving in conditions lethal to most life. These organisms give us insights into how life could adapt to space conditions:
Tardigrades are microscopic animals capable of surviving in space:
These abilities make tardigrades ideal candidates for studying the possibility of life in space!