Joshua Lukose
Date: 4/25/2026
The world’s strongest computer soon may look nothing like what they are now, that’s just how quantum computing works. Machines use quantum physics to process information in ways that traditional computers can’t; they aren’t just “faster” than the computers of today, they’re a different typer of computing that can solve problems exponentially quicker. But this raises an important question: is quantum computing the next major breakthrough or is it a security nightmare? These quantum computers could revolutionize medicine, chemistry, and optimization, but it could break the encryption that protects all modern digital life.
Regular computers use bits, which are either on or off, in other words 0 or 1. Quantum computers use qubits; these behave similar to standard bits, but instead of having only 2 states they have INSERT NUMBEr states. This allows for different types of computation that can be useful for specific tasks like simulating molecules or solving complex optimization problems. For example, a quantum computer could model how a revolutionary drug interacts with a certain protein more efficiently than a classical computer could, since chemistry is actually “quantum” at a tiny scale.
The benefits brough by quantum computers could be huge. For one, science and medicine would advance much quicker. Since quantum computing can give better simulations, new materials and drugs could develop quicker. Also, quantum computing improves optimization problems; finding the most efficient delivery routes, improving power grids, or aiding with complex scheduling becomes a light task for quantum computers. These problems riddle daily life, and even small improvements could save money and energy. Quantum computing can also push AI research in certain areas by improving the efficiency of calculations.
Despite this, quantum computing poses a major threat to encryption. A lot of modern security relies on mathematical encryption that classical computers struggle to solve, but a strong enough quantum algorithms could break these equations in seconds, meaning that things such as banking, messaging, and secure websites are at risk. Even if that kind of power isn’t fully achieved, it still creates a long-term risk because stolen data can be decrypted at a future date when quantum computing eventually improves. And another concern is access; if only a few corporations or governments are able to use quantum computers, it creates a large imbalance in power and security.
Quantum computing could be one of the greatest scientific breakthroughs in the history of mankind, but it comes with major consequences. We shouldn’t fear quantum computing, but we must prepare for it. This means developing “quantum-proof” encryption that is able to resist a quantum attack, making sure that the benefits of quantum computing doesn’t collapse general security. Quantum computers can open doors we didn’t even know existed, but they could crumble the very foundation we rely on every day, so as quantum computing grows, our caution must as well.