
Munich Quantum Instruments
Develops advanced photonic quantum sensors, including superconducting single-photon detectors, for quantum technology applications.
Date | Investors | Amount | Round |
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investor | €0.0 | round | |
investor | €0.0 | round | |
* | N/A | Seed | |
Total Funding | 000k |
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Munich Quantum Instruments (MQI) is a technology startup specializing in the development of advanced photonic quantum sensors, with a particular focus on superconducting single-photon detectors. These sensors are capable of detecting the impact of a single photon, the smallest unit of light, enabling a range of cutting-edge applications across multiple industries.
MQI’s detectors are designed for high efficiency and scalability, making them well-suited for demanding fields such as optical communication, quantum computing, quantum key distribution, quantum sensing, and the emerging quantum internet. In optical communication, MQI’s technology supports data transmission using extremely faint light, allowing for higher data rates than traditional radio frequency methods. This capability is especially valuable for deep space optical communication, such as maintaining connections between Earth and lunar or interplanetary missions.
In quantum computing, MQI’s detectors facilitate the creation, manipulation, and detection of single-photon qubits, thereby enhancing computing power and accuracy for photonic quantum computers. For cybersecurity, their detectors are integral to quantum key distribution (QKD), providing quantum-proof encryption that addresses vulnerabilities in current protocols threatened by future quantum computers.
Beyond communication and computing, MQI’s sensors are used in precision quantum sensing applications, including biology, healthcare, and materials science, where tailored sensor systems can be developed for specific client needs. The company also supports the vision of a global quantum internet, where scalable, efficient single-photon detectors are essential for transmitting and processing quantum information securely and reliably.
Keywords: photonic quantum sensors, superconducting single-photon detectors, optical communication, deep space communication, quantum computing, quantum key distribution, quantum sensing, quantum internet, scalable detectors, quantum cryptography, precision measurement