<body><div><figure><img src="https://img.particlenews.com/image.php?type=thumbnail_580x000&amp;url=0aVxMw_0wPn0tZF00" alt="https://img.particlenews.com/image.php?url=0aVxMw_0wPn0tZF00" width="761" height="524" ></figure><p>A new report from the Quantum Economic Development Consortium (QED-C) highlights the potential of quantum sensors to improve the accuracy and reliability of position, navigation, and timing (PNT) devices. These devices are crucial in various industries, including defense, transportation, communications, energy, finance, and healthcare.</p><p>QED-C Executive Director Celia Merzbacher states that quantum sensors can enable navigation even when satellite-based systems like GPS are disrupted or unavailable. This technology has far-reaching implications, from supporting underground operations to enhancing navigation in urban settings.</p><p>Quantum sensors, such as clocks, magnetometers, gravimeters, and inertial sensors, offer levels of precision that are impossible with traditional methods. The report presents four recommendations for accelerating the development of quantum sensors and increasing their adoption for PNT applications. QED-C members, including stakeholders from various industries, are working together to identify and address technological, standards, and workforce gaps.</p><p><b>Enhancing Position, Navigation, and Timing (PNT) Capabilities with Quantum Sensors</b></p><p>The Quantum Economic Development Consortium (QED-C) has released a report highlighting the potential of quantum sensors to improve the accuracy and reliability of PNT devices. These devices provide critical insights on location, orientation, altitude, tilt, directional movement, acceleration, and timing for various industries, including defense, transportation, communications, energy, finance, and healthcare.</p><p>Traditional methods used in PNT devices have limitations, such as poor signal quality, natural events like space weather affecting satellites, and man-made events like jamming and spoofing attacks. Quantum sensors, including clocks, magnetometers, gravimeters, and inertial sensors, offer levels of precision not possible with traditional methods. This enables navigation even when satellite-based systems like GPS are disrupted or unavailable.</p><p>The report emphasizes the importance of quantum sensor-enhanced PNT in various situations, such as underground operations like mining and tunneling, warfighters in regions where signals are being jammed, or navigation in urban settings where buildings create GPS “dead zones.” Quantum sensors can provide resilient, unjammable PNT capabilities, which is crucial for military, space, emergency response, and other operations that require security and precision.</p><h2>Use Cases for Quantum Sensor-Enhanced PNT</h2><p>The report presents various use cases for quantum sensor-enhanced PNT, including magnetic navigation, precision timing, small satellite orientation and alignment, battery optimization, biomarker detection, earthquake detection and prediction, undersea maintenance and protection, and climate monitoring.</p><p>For instance, quantum clocks offer extraordinary timekeeping precision, essential for synchronizing networks and systems in applications like telecommunications, financial transactions, and energy grid management.</p><p>In transportation, quantum sensors can track trains in tunnels, ensuring safe and efficient operations. In healthcare, biomarker detection using quantum sensors can lead to early disease diagnosis and treatment. The use cases demonstrate the vast potential of quantum sensor-enhanced PNT across various industries.</p><h2>Accelerating the Development and Adoption of Quantum Sensors</h2><p>The report presents four recommendations for accelerating the development of quantum sensors and increasing the adoption of PNT applications. These recommendations aim to address gaps in technology, standards, and workforce, essential for the widespread adoption of quantum sensors.</p><p>QED-C members encourage the adoption of quantum sensors to support military, space, emergency response, and other operations requiring security and precision. The consortium is working together to identify and address gaps in technology, standards, and workforce, ultimately enabling and growing the quantum industry.</p><h2>The Role of QED-C in Advancing Quantum Information Science</h2><p>The Quantum Economic Development Consortium (QED-C) was established with support from the National Institute of Standards and Technology (NIST) as part of the Federal strategy for advancing quantum information science. Today, QED-C members are working together to identify and address technology, standards, and workforce gaps.</p><p>As a consortium of stakeholders, QED-C aims to enable and grow the quantum industry. The report highlights the importance of collaboration among stakeholders to accelerate the development and adoption of quantum sensors for PNT applications. By addressing gaps in technology, standards, and workforce, QED-C plays a vital role in advancing quantum information science and promoting its widespread adoption.</p><p>Note: The article has been rewritten to maintain a neutral tone, avoiding sales-like language and exaggerated statements. Key concepts have been explained and expanded upon to improve understanding, and similar ideas have been grouped to create coherent sentences and paragraphs.</p></div></body>

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Quantum Sensors Poised to Revolutionize GPS and Navigation Systems Says Report from Quantum Economic Development Consortium

A new report from the Quantum Economic Development Consortium (QED-C) highlights the potential of quantum sensors to improve the accuracy and reliability of position, navigation, and timing (PNT) devices. These devices are crucial in various industries, including defense, transportation, communications, energy, finance, and healthcare. QED-C Executive Director Celia Merzbacher states...