Quantum Leap, is a feasibility study aimed at exploring the potential of quantum sensing technology within the electricity distribution sector. As networks move to a net zero operation, with a high penetration of low carbon technologies, network assets will need to be pushed harder. Quantum Leap by assessing its applications for asset health monitoring and reducing intrusive testing, the project seeks to enhance network operational efficiency and reliability. The study will identify high-impact use cases, evaluate the technology's readiness, and provide a roadmap for adoption and integration. With a focus on innovation, the project addresses the unique challenges of adopting unproven technology against a selection of use cases, ensuring that insights gained can inform future networks adoption. Ultimately, the project aims to lay a solid foundation for the successful deployment of quantum sensing solutions in the energy industry.

Benefits

The feasibility study for the Quantum Sensor project will provide numerous benefits, including a deeper understanding of the technology and its potential applications within the electricity industry. By systematically evaluating the readiness levels of quantum sensors, the study will identify most viable use cases and assess their operational feasibility. This comprehensive analysis will create a roadmap for future deployment, outlining the necessary steps and considerations for integrating quantum sensing technology into existing systems.

Moreover, the foundational knowledge gained from this study will help inform and guide future innovation projects, ensuring that resources are allocated effectively and reducing the risk of costly missteps. By establishing a clear understanding of quantum sensing capabilities and limitations, the project can prevent other initiatives from wasting money on ineffective solutions. Ultimately, this strategic approach will not only enhance the reliability and efficiency of energy supply but also position the industry to leverage cutting-edge technology for future advancements while optimising investment in innovation

Using the example use case, quantum sensors could have the potential to revolutionise the inspection of wooden poles by enabling non-intrusive assessments of conditions below ground. Unlike traditional methods that rely on above-ground evaluations, quantum sensors may be able to access below ground conditions helping to provide accurate and detailed information about the condition of the entire pole, including the critical below-ground section, quantum sensors can help asset inspectors make informed decisions without the need for invasive testing techniques like resi-drilling. This innovative approach not only preserves the structural integrity of the poles but also enhances the overall reliability and longevity of the electricity distribution network. Furthermore, by integrating data collected from quantum sensors into asset health records and datasets, utilities can improve their asset management practices, enabling more effective monitoring, predictive maintenance, and informed decision-making based on comprehensive and accurate information.