All Quantum Computing Posts
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Quantum Computing
Quantum Use Cases in Telecom
Quantum computing’s impact on global telecommunications will be transformative. It holds the potential to revolutionize how we secure and operate networks, enabling levels of performance and protection previously unattainable. At the same time, it forces a reckoning with the vulnerabilities of our current systems. The journey to fully realize quantum-enhanced telecom will involve overcoming technical challenges and managing risks, but the destination – a world…
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Quantum Computing
Quantum of Flapdoodle: A Guide to Quantum Hype and Scams
The gap between the hard reality of quantum engineering and the sensational way it’s often portrayed has created a fertile breeding ground for misinformation and fraud. It ranges from innocuous exaggeration, to willful marketing spin, to serious financial scams and wild pseudoscience. Think of it as a “know your enemy” for quantum professionals: if you can spot these patterns, you’re less likely to fall for…
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Quantum Computing
Quantum Use Cases in Healthcare & Medical Research
Quantum computing has the potential to reshape global healthcare and medical research in the coming decades. From our current vantage point, we can see glimmers of its future impact: prototype quantum algorithms already accelerating drug discovery, early collaborations bringing quantum hardware into hospital research labs, and quantum-inspired methods optimizing healthcare operations in ways that improve patient care. As the technology evolves from today’s nascent systems…
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Quantum Computing
Entropy-Driven Photonic Quantum Computing: A Critical Look at QCI’s Approach
Quantum Computing Inc. (QCI) has introduced an unconventional paradigm in quantum computing called Entropy Quantum Computing (EQC). Unlike the standard approach of isolating qubits in pristine, ultra-cold environments, QCI’s method intentionally embraces environmental noise and loss as part of the computation. Their quantum processors, optical devices operating at room temperature, leverage photons and a bit of chaos to solve complex optimization problems.
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Quantum Computing
China’s Quantum Computing and Quantum Technology Initiatives
In little over a decade, China transformed from a minor player into a quantum technology powerhouse. The talent has matured, and a new generation of Chinese quantum scientists is coming into its own – many trained at top universities domestically and abroad, now supported by some of the best facilities in the world. Looking forward, we can expect China’s quantum momentum to continue. The Chinese…
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Quantum Computing
Quantum Technology Initiatives in Singapore and ASEAN
ASEAN’s journey in quantum technology is relatively recent but steadily gaining momentum. Singapore took the lead in the early 2000s – the National Research Foundation began funding quantum research as early as 2002, and by 2007 the government helped establish the Centre for Quantum Technologies (CQT) at the National University of Singapore. CQT was a milestone for the region, bringing together physicists, computer scientists, and…
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Quantum Computing
Quantum Technologies and Quantum Computing in Russia
Russia’s engagement with quantum science dates back to the Soviet era, which produced a strong foundation of theoretical physics and early quantum experiments. This legacy endures in the modern era – Russian experts often note that the “Soviet school of quantum physics was one of the best in the world,” providing a deep talent pool for today’s initiatives. In the 2010s, Russia began explicitly organizing…
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Quantum Computing
Variational Quantum Eigensolver (VQE) Breakthroughs
The Variational Quantum Eigensolver (VQE), introduced in 2014, has rapidly become a flagship algorithm for simulating ground-state properties on today’s noisy quantum computers. Rather than running long quantum circuits, VQE uses short circuits and a classical optimizer in tandem: the quantum processor prepares a trial wavefunction with adjustable parameters, and a classical computer iteratively tweaks those parameters to minimize the measured energy. This hybrid approach…
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