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This article focuses on the core principles and applications of quantum sensing technology, specifically leveraging superposition and entanglement for high-precision measurements in medicine, navigation, and defense. It highlights how these devices utilize subatomic properties to detect phenomena beyond classical sensor capabilities, supported by significant national research investments. The content centers entirely on advancements within the domain of quantum mechanics rather than treating it as a peripheral feature.
Quantum sensing : From the inner workings of cells to the outer limits of the universe

Quantum sensors exploit properties of matter at the smallest scales � like those of electrons and atoms � to measure quantities such as temperature, distance and magnetic fields with unprecedented sensitivity and precision. By detecting phenomena that classical sensors cannot, quantum sensors open new possibilities in medical imaging, navigation, underground mineral detection and more. U.S. National Science Foundation investments are helping turn advances in quantum sensing into practical technologies for science, medicine, manufacturing and national security. What are quantum sensors? Quantum sensors use properties of matter at the molecular, atomic and subatomic scales to measure physical quantities, including magnetic fields, electric fields, temperature, pressure, position…
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