IBM Pulls Quantum Computing From the Rut With Breakthrough
Physicists at IBM have conducted a proof-of-principle experiment that indicates quantum computers will soon surpass classical computers in practical tasks. The study, published in Nature, focused on simulating the behavior of a magnetic material using IBM’s Eagle quantum processor. The team developed “error-mitigating” techniques to overcome quantum noise, which introduces errors in calculations. By achieving reliable results at a scale where classical computers struggle, the researchers demonstrated the potential of quantum computers for complex algorithms and systems. This experiment serves as a benchmark for the current state of quantum computing and showcases the progress being made in the field. Quantum computers leverage quantum phenomena like superposition and entanglement to process information. IBM, along with other companies such as Google, utilises tiny superconducting circuits to encode each qubit, the quantum equivalent of classical bits. The main challenge lies in maintaining the quantum state of qubits for a sufficient duration to perform calculations. IBM’s approach emphasizes error mitigation rather than error correction, while companies like Google focus on refining quantum error-correction techniques for long-term development. The IBM researchers measured the noise in each qubit and extrapolated their measurements to predict the system’s behavior without noise. They successfully ran calculations involving all 127 qubits of the Eagle processor, marking the largest reported experiment of its kind. While some researchers believe that quantum error correction is necessary to enable calculations impossible for classical supercomputers, IBM’s short-term strategy of error mitigation has been validated by the results. IBM is set to release its most powerful quantum processor, the 1,121-qubit Condor chip, later this year. Additionally, the company has “utility-scale processors” with up to 4,158 qubits in its development pipeline. However, significant engineering challenges must be addressed to achieve the long-term goal of building 100,000-qubit machines capable of fully error-corrected algorithms by 2033. The progress in quantum computing holds promise for future advancements and applications in various fields. Conclusively, IBM’s proof-of-principle experiment demonstrates the potential of quantum computers to outperform classical computers in practical tasks. By mitigating errors caused by quantum noise, the researchers achieved reliable results where classical computers struggle. While quantum error correction remains a long-term goal, IBM’s approach of error mitigation has shown promising results. The company’s upcoming quantum processors and development pipeline further highlight the progress in the field. Quantum computing holds great promise for various applications, but substantial engineering challenges need to be overcome for widespread adoption and realisation of its full potential.
Physicists at IBM have conducted a proof-of-principle experiment that indicates quantum computers will soon surpass classical computers in practical tasks.
Physicists at IBM have conducted a proof-of-principle experiment that indicates quantum computers will soon surpass classical computers in practical tasks.
["Google", "IBM", "Quantum Computing"]
["Quantum Computing", "Go", "programming_languages:R", "AI", "RPA", "programming_languages:Go", "RAG", "IBM", "Google", "R", "emerging_tech:quantum computing"]
["AI", "RAG", "R", "Go", "RPA", "programming_languages:R", "programming_languages:Go", "emerging_tech:quantum computing"]
Shyam is a tech journalist with expertise in policy and politics, and exhibits a fervent interest in scrutinising the convergence of AI and analytics in society. In his leisure time, he indulges in anime binges and mountain hikes.