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New research highlight: experimental demonstration of the primitives of fusion based photonic quantum computing. Check out our recent manuscript where we realize photonic fusion of spin-photon entanglement generated by a deterministic quantum dot source. https://lnkd.in/dNi4Hr_H

Scientists at the Technion have developed a laser that can emit light of a specific spin, paving the way for new applications in quantum information and sensing. The laser is based on a single atomic layer and can operate at room temperature, without the need for strong magnetic fields. This makes it a promising candidate for a variety of applications, including quantum computing and optical communications. See more 👉 https://lnkd.in/dkV8YBdG #quantumtechnology #photonicsinnovation #lasertechnology #quantumsensing #technologicalbreakthrough #RoomTemperatureLaser #AtomicLayerLaser #opticalcommunications #QuantumComputing #innovationsinscience

More exciting #QuantumComputing advancements are in from the Photonic Inc. team. Our latest research paper, “#DistributedQuantumComputing in Silicon,” presents a critical step towards achieving scalable quantum computing and #QuantumNetworks. The research demonstrates the distribution of entanglement between modules using silicon T centres and its application in teleported gate sequences. This important breakthrough paves the way for future commercial quantum algorithms and enhanced computational capabilities. Explore the full details of this pioneering work at arXiv: https://lnkd.in/exhBqQ7M #DistributedEntanglement

In the last week, we added to arXiv our new paper "Large Segmentation Design of Robust Photonic Quantum Gates" 📜 . In our paper, we analyze the fidelity and power loss of photonic quantum gates, implemented by a segmentation of coupled optical waveguides, as functions of the number of segments. We show that designs with a large number of segments mitigate effectively systematic errors for a wide range of error correlation strength and variance. We quantify the design roughness effect on the power loss and analyze the performance of various methods for smoothing the configuration of the waveguides. We observe an asymptotic scaling behavior of the gate fidelity and power loss with the number of segments. One of the leading approaches to realizing quantum computing is using photons in optical waveguides, reducing the noise in this platform is another important step toward robust quantum computing. Link to the paper: https://lnkd.in/dy8JfSz5 In the figure attached, we show a comparison between different quantum gates we designed with their fidelity, and power loss (N represents the number of segments) #QuantumComputing #QuantumOptics #Research #SiliconPhotonics

Happening now! Hitoshi Murayama is about to present the report of the Particle Physics Project Prioritization Panel (P5). The recommendations cover the next 10 years, with a 20 year, global vision. Karsten Heegeris describing how the report is the culmination of a huge community effort. It was an honor to be asked to serve on this panel -- it involved more than 10 weeks of effort from me and other panel members! In addition to providing a scientific vision and specific projects, the report and recommendations address many issues around the impact of this research on society, the development of an advanced technical workforce development, and alignment with national priorities in AI, microelectronics, quantum information science, computing, and cyberinfrastructure. #P5report #QuantumUniverse Primary source for material: https://lnkd.in/g7gc2naV Webinar link: https://lnkd.in/gGGnTVtS Presentation slides: https://lnkd.in/gdVhfT2D

ORCA’s new research highlights the path to fault tolerance with photon-loss-resistant protocols using simpler resource states. Our research shows that fault-tolerant computers can be achieved with simpler resource states unlocked by our novel method for loss-resistant quantum information processing. This points towards a commercially viable way of building universal quantum computers.  Please see the link below to read our research paper. https://lnkd.in/emNA4qz4 #quantum #quantumcomputing #photonics #photonicquantumcomputers #research

🚀 Exciting Quantum Computing Breakthrough! 🌐 Princeton University researchers, led by Jeff Thompson, have developed a groundbreaking method for real-time error correction in quantum computers. By using an innovative approach, they can identify and erase errors, making quantum computers up to ten times easier to correct. This advancement marks a significant leap forward in the race towards large-scale quantum computing capable of solving complex computational problems. Check out the full details in the recent publication on SciTechDaily. #QuantumComputing #Innovation #ScienceResearch

What can quantum computing do? From revolutionizing drug discovery to solving societal challenges, this technology can improve businesses, the environment and society. Our researcher Shingo Tokunaga, from our Quantum Laboratory, explored how quantum computing will transform many industries and what people can expect in the upcoming years. Explore all the insights in this interview: https://okt.to/UvaDt8 #QuantumComputing #DrugDiscovery #Technology

Researchers have introduced a novel algorithm called Automated Compression of Arbitrary Environments (ACE) designed to study the interactions of qubits with their surrounding environment and the ensuing changes in their quantum state. By simplifying the computation of quantum dynamics, this algorithm, grounded on Feynman’s interpretation of quantum mechanics, offers new avenues for understanding and harnessing quantum systems. Potential applications include advancements in quantum telephony and computing, providing more precise predictions about quantum coherence and entanglement

At the #APS conference in Minneapolis, I had the chance to talk about the practical hurdles and opportunities of applying #quantum computing to drug design. While future quantum computers with millions of qubits hold promise for computing the energy of individual molecules, many challenges remain for applying quantum computing in drug design. How to efficiently compute the energies of millions of conformers? How to use quantum computers to enhance our understanding of drug-target binding? These and many more basis research questions are pivotal as we pave the way for quantum-assisted #drug design. To achieve this, we must improve existing quantum algorithms and come up with novel ideas. Curious to learn more? Dive into our recently published perspective in Nature Physics: https://lnkd.in/ed9Bw82i Boehringer Ingelheim