Breakthroughs in scalability, error-correction, and infrastructure have led to an accelerated timeline for quantum advantage. Quantum computing stands as one of those “just around the corner” technologies, sparking divisive opinions within the scientific community. While tech giants like Google and IBM are investing heavily in research, development, and marketing, treating quantum computing as if it’s already a reality, there are skeptics among independent researchers who maintain that quantum computers will never materialize. Nevertheless, a recent survey conducted by QuEra among 927 individuals involved in quantum computing (including researchers, executives, media representatives, enthusiasts, and more) reveals a majority optimism. Specifically, 74.9% of respondents “expect quantum to be a superior alternative to classical computing for certain workloads” within the decade. This aligns with the general sentiment among professionals in the field, who anticipate that quantum computers will tackle problems beyond the reach of classical computers in the next 10 years.
Quantum computers exist, and their potential is being explored by leading technology giants like IBM, Google, Microsoft, D-Wave, and QuEra, among others. Across Europe and China, several functional quantum systems are already in operation. However, the real challenge lies not in their existence, but in determining their practical utility and scalability. In other words, quantum computers will only garner widespread attention when they become profitable, which hinges on their ability to perform critical tasks that conventional computers cannot.
The field of quantum computing has undergone significant transformations since Dyakonov’s op-ed. Over the past few years, we’ve witnessed remarkable progress in this emerging technology. Back in 2019, one of the primary obstacles for quantum developers was the infrastructure. As an illustration, IBM’s early efforts to construct a gate-based quantum computer resulted in a bulky, steampunk-inspired tangle of pipes and chips. Many are familiar with this brass chandelier-like device, often featured in quantum computing news articles. However, it came with a hefty price tag, requiring millions to build, a dedicated team of physicists, and a large laboratory to operate, while only marginally meeting the criteria for quantum computing. Fast forward to mid-2024, and the quantum computing landscape has broadened significantly. More scientists, laboratories, businesses, and governments are actively engaged in this field than ever before. Thanks to advancements in error-correction, fault-tolerance, and infrastructure, we now have room-temperature quantum functionality and multiple demonstrations of quantum advantage. This progress indicates a bright future for quantum computing, with more efficient and accessible technology on the horizon.
It’s not feasible to compare a quantum computer to a classical one. Just as we don’t use gas turbine engines to power our televisions, it’s unlikely we’ll see personal quantum computers or quantum laptops in the foreseeable future. Quantum computers are not meant to address simple challenges; rather, they’re engineered to tackle the computationally demanding issues that arise when classical computing reaches its mathematical boundaries. These machines aren’t destined to replace everyday devices like the iPhone, but they could revolutionize the accuracy of weather, traffic, and financial Predictions displayed on its screen. With quantum computing, we’re looking towards a future where complex problems are solved with unprecedented precision and efficiency.
Scan to download
Comments
Leave a comment
Your email address will not be published. Required fields are marked with an asterisk (*).
Comment*
Name*
Email address*