Quantum technologies promise unbreakable security based on the laws of physics and offer powerful new tools to simulate problems that are currently beyond the reach of classical computers. However, realizing these breakthroughs requires new resources that are not yet readily available. Among various quantum systems, photons —particles of light— stand out as ideal carriers for communication and sensing applications. A key challenge today is the lack of deterministic, high-quality sources of photons suitable for scalable quantum technologies. This project aims to address that challenge by developing large entangled states of photons using a new class of artificial atoms suited for scalability and integration. In addition to advancing the scientific frontier, the project includes initiatives to attract and train undergraduate students in quantum science and engineering—helping build the future quantum workforce. Furthermore, dedicated efforts will be made to effectively communicate and disseminate knowledge about quantum technologies to the broader public, fostering wider understanding and engagement. Technical Description: The prerequisite for exploiting photons in larger-scale problems is producing high-quality streams of entangled photons. The standard method for generating these states is probabilistic, with a low success rate of around 3%, and suffers from large overheads when scaling to large photon numbers. Quantum emitters have been proposed as an alternative for gen