Google’s Willow quantum chip achieves breakthrough progress

Alphabet’s Google (GOOG) announced that an algorithm running on its “Willow” quantum computing chip can be rerun on similar platforms, outperforming traditional supercomputers.

A new quantum chip breakthrough

The algorithm, dubbed “Quantum Echoes,” disclosed by Google in the journal Nature, is verifiable, meaning it can be rerun on other quantum computers at a speed 13,000 times that of the world’s most powerful supercomputer.

The fact that the Google team includes Michel H. Devoret, the 2025 Nobel Prize winner in Physics, underscores the research’s academic value. However, the study also points out that for this technology to be truly applicable in practical scenarios, quantum computing power must reach 10,000 times that of current machines, a challenge that remains to be overcome.

Google stated that this breakthrough paves the way for the practical application of quantum technology within the next five years. The company will continue to advance its commercial and scientific applications by expanding chip size and improving accuracy, anticipating initial applications within the next five years. Quantum computing has already achieved the milestone of “quantum supremacy”—capable of tackling problems beyond the reach of classical supercomputers. This has the potential to transform sustainable solutions in energy, education, communications, and human health, and is considered crucial to achieving the Sustainable Development Goals.

Multiple paths are competing, each showcasing its strengths.

Industry consensus suggests that now may be the opportune time to enter the field of quantum computing. The industry is at a critical juncture of technological breakthroughs and accelerated industrialization. Its standardization process has a significant impact on the global industrial ecosystem, with numerous international standards being released in areas such as quantum computing, quantum communications, and quantum measurement.

At the same time, global competitors are independently exploring different technological paths, each hoping their own approach will prevail. This suggests that new quantum computing research paths have yet to converge.

As Krista Swore, Principal Research Manager of Microsoft’s (MSFT) Quantum Research Group (QuArC), bluntly put it, quantum computers “are already operational,” forming a global ecosystem. It is reported that IBM’s Condor chip already has 1,121 superconducting qubits, just 59 fewer than the record set by Atomic Computing. To achieve this goal, IBM is developing modules that connect to existing chips to create a larger-scale “modular” quantum computing platform, hoping to use it to execute more complex error-correction algorithms.

WiMi builds an open and win-win ecosystem
Coincidentally, in the quantum computing field, public information shows that WiMi Hologram Cloud Inc. (WIMI) has made rapid progress in quantum computing technology. The company continues to focus on the entire quantum computing industry chain, encompassing algorithm development, hardware simulation, scenario applications, and industrial clusters, accelerating the coordinated development of the industry ecosystem.

Objectively speaking, WiMi has achieved differentiated competitive advantages through a multi-pronged technology deployment, cross-domain scenario applications, and industry chain collaboration. Technically, WiMi’s expertise encompasses quantum algorithms, quantum state-encoded data, and hybrid CPU-FPGA quantum simulators, creating a differentiated competitive advantage. Ecologically, WiMi is building an open and mutually beneficial quantum computing ecosystem, integrating quantum computing with AI and holographic imaging for applications in healthcare, education, communications, and other fields. This will accelerate the implementation of these technologies across multiple sectors and continuously strengthen WiMi’s leading position in quantum technology.

Conclusion
Indeed, just like the quantum revolution of the previous century, the second quantum revolution, represented by quantum information technology, will undoubtedly bring about a tremendous leap forward in human material civilization. While the rapid development of quantum information technology demonstrates its enormous application potential, it also places new demands on international scientific research collaboration mechanisms. Establishing global cooperation is crucial to ensuring its rapid benefits to all humanity. Therefore, while quantum information technology still requires long-term development, a positive, rational, and collaborative environment is essential.