Humankind stands on the brink of a revolution in data processing. Technology has been able to implement the principles of quantum mechanics to transcend the limitations of classical computing by a fundamental paradigm shift. The technology leverages the quantum mechanical phenomena of superposition and entanglement of qubits, which are the quantum counterparts of classical bits. The resulting mathematics permits technology to handle not just a large number but an exponentially large number of calculations, not just in sequence (as performed in classical computing) but simultaneously.

The implications are far reaching spanning a vast range of theoretical research arenas as well as modern day social technological fields. This will redefine the operations of the myriads of industries. To take the example of theoretical field of chemistry, quantum computers will permit the simulation of complex molecular structures and their interactions with unprecedented precision. Technological implications are paving the way for radically new approaches to drug discovery in the field of health but also with understanding of material sciences which are essential across various technology domains. Radical mathematics inherent in these computers also has drastic implications to the theoretical field of optimization, permitting disentangling problems of bewildering complexities. Technological implications of this theoretical field are found in logistics (military and civilian logistics), finance, and way beyond. The radical physics and mathematics inherent in the quantum computers give us a dramatic depth into the understanding of biological systems, harmonizing us with the universe.