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Ever wondered what keeps your data flawless, and secret, as it travels through an optical fibre, even against the quantum computers on the horizon? The answer is error-correcting codes: clever maths
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of classical telecom networks for quantum communication and networking. In contrast to classical optical signals, quantum states are extremely fragile and degrade rapidly due to loss, noise, and decoherence
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Are you passionate about shaping the future of AI infrastructure? Join us to develop innovative photonic technologies that enable ultra-fast, energy-efficient, and highly scalable optical
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networks for quantum communication and networking. In contrast to classical optical signals, quantum states are extremely fragile and degrade rapidly due to loss, noise, and decoherence, especially over long
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tunneling diode (RTD) excitable dynamics with quantum-dot active devices capable of providing a nonlinear amplifying response to extremely weak optical stimuli. These photonic neurons will be realized as
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programming tools. A good command of English, both written and spoken. Experience in one or more of the following areas would be an advantage: Quantum optics. Quantum sensing and metrology. Optomechanics and
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infrastructure? Join us to develop innovative photonic technologies that enable ultra-fast, energy-efficient, and highly scalable optical interconnects for next-generation AI compute clusters. Information
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solutions for crisis and disaster management. Our Research Field Quantum Technologies , within the Competence Unit "Optical Quantum Technologies", specialises in applied research of new methods to exploit
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of magnetically stable and optically addressable spins on surfaces, bringing molecular quantum technologies to fruition. Depending on fit, successful candidates may contribute to one or more of the
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(QuBriC), we are seeking a PhD researcher who will work on quantum error correction for photonic, optical and microwave, quantum computing architectures within the group of Prof. Terhal at Delft University