We explore the transformative potential of quantum tech alongside the obstacles to building practical quantum computers.
In theory, quantum computing represents a revolutionary leap forward in processing power. By leveraging quantum mechanical phenomena like superposition and entanglement, quantum computers can rapidly solve problems believed to be intractable for classical computers. Drug discovery, complex modeling, machine learning and cryptography could be transformed. But building practical, large-scale quantum computers has proven extremely challenging. Quantum bits are finicky and introducing errors. Scaling beyond just a few dozen qubits has been difficult. The equipment required for quantum computations requires complex cryogenic cooling. While significant progress is being made, we are likely still years away from quantum computers that can exceed classical supercomputers. Their immense potential continues to drive massive investment and R&D from tech giants and startups alike. But managing expectations and taking an iterative approach to development will be key to realizing the promise of quantum computing. In the near term, experts expect a hybrid model harnessing the strengths of both quantum and classical computing will prevail. While the timescale is uncertain, quantum computing remains one of the most exciting frontiers in the tech world today.