Computer Simulation Collection

British physicist Prof. Peter Higgs C015 / 4138
British theoretical physicist Professor Peter Higgs (b. 1929). In 1964, Higgs predicted the existence of a new type of fundamental particle, commonly called the Higgs boson

Brain neuron. Computer reconstruction of a medium spiny neuron from the basal ganglia of the brain. Neurons (nerve cells) are responsible for passing information around the central nervous system

Bose-Einstein condensate simulation. Computer simulation of vortices forming within a spinning Bose-Einstein condensate (BEC). A BEC is a state of matter that can arise at very low temperatures

Space shuttle
Computer simulation of the surface pressure experienced by the space shuttle during its ascent stage. The colours on the surface of the shuttle represent the varying levels of surface pressure

Airflow over the Space Shuttle during ascent
Comparison of computer simulation (left) and wind tunnel measurements (right) of the airflow over the space shuttle during ascent

Fire plumes, computer simulation
Fire plumes. Computer simulation of large fire plumes. The simulation reveals turbulence and the unstable nature of fire plumes

San Francisco earthquake risk forecast. Satellite image of California, USA, showing earthquake faults (red lines) and synthetic aperture radar patterns of seismic deformations resulting from a model

Supernova explosion, 3D simulation
Supernova explosion. 3D supercomputer simulation of a supernova expanding 346.7 seconds after ignition. The model represents a supernova measuring around 2.4 million kilometres in diameter

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Computer simulation is a powerful tool that allows us to explore the realms of science and beyond, pushing the boundaries of our understanding. British physicist Prof. Peter Higgs C015/4138, renowned for his work on the Higgs boson, has harnessed this technology to delve into the mysteries of nature. One fascinating application lies in simulating Bose-Einstein condensate, a state of matter where atoms reach ultra-low temperatures and behave as a single entity. Through computer simulations, scientists can unravel its intricate properties and unlock new frontiers in quantum physics. In space exploration, computer simulations play an integral role in designing spacecraft like the Space Shuttle. By modeling airflow over its structure during ascent, engineers optimize aerodynamics for safer missions and more efficient travel through Earth's atmosphere. From earthly phenomena to natural disasters, computer simulations aid us in predicting and mitigating risks. Fire plumes can be simulated to understand their behavior and develop strategies for firefighting. Similarly, tsunami simulations help coastal communities prepare for potential devastation by studying wave propagation patterns. Speaking of calamities closer to home, San Francisco earthquake risk forecasts rely on sophisticated computer models that analyze seismic data from fault lines beneath the city's surface. These simulations enable authorities to devise evacuation plans and implement structural improvements accordingly. Venturing into cosmic explosions takes us further into awe-inspiring realms with 3D supernova explosion simulations. By recreating these cataclysmic events virtually, astrophysicists gain insights into stellar evolution while unraveling secrets about our universe's birth and composition. Zooming back down to Earth brings us face-to-face with another marvel: our brain's complex network of neurons. Computer simulations allow neuroscientists to study how these cells communicate with each other—shedding light on cognition processes or even unlocking treatments for neurological disorders. Renewable energy sources also benefit from simulation technologies; wave energy harnesses ocean waves' power efficiently without harming marine ecosystems.