In recent years, simulation has become a vital part of motorsports. Today's racing simulation replicates real world racing with unreal accuracy . Formula One teams nowadays spend a lot of money on simulation and esports teams. The majority of the teams have their own esports racing team. And the spectators of F1 esports are fantastic, with a huge prize fund. But why would a Formula One team invest so much money on a game? The answer is a bit more complex than you think. F1 drivers spend plenty of time preparing in simulation. F1 teams spend the majority of their off-season time developing race vehicles, yet formula one cars do not spend enough time on track. As a result, the teams are unable to test all of the variables such as varied wing angles, tires, and driving setups in order to fully tune the car. Fig 1: Simulation in motosports. (Adobe stock Image) That's when Esprorts and simulation come into play. Nowadays, the game provides nearly the same elements as an ac...
Imagine you're driving down a highway at night, your headlights cutting through the dark. You trust that the path ahead is safe because of those beams of light, just as we trust that encryption shields our data online. But what if that light wasn’t random? But what if someone knew exactly where your headlights would point next. That’s the risk we face today with encryption—random numbers used in security systems aren't always as random as we think. When there’s predictability, even in tiny amounts, hackers can exploit it. In internet encryption, randomness is the backbone of security. It is the seemingly chaotic, unpredictable values that ensure data stays safe, creating encryption keys that no one can guess. But , what happens if these “random” numbers are not as random as they appear? And what if I told you that you and I make this randomness that we can't even crack back? Welcome to the realm of randomness, recognized as cryptography among engineers. Fig 1: Random isn’t...