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New GPS Interference Detector Developed by Researchers at Oak Ridge National Laboratory




New research from Oak Ridge National Laboratory has led to the development of a highly sensitive GPS interference detector that can detect both spoofing and jamming even when fake and real signals are of equal strength. This new technology is set to improve GPS security for various industries, including aviation, transportation, and government agencies.

  • The Oak Ridge National Laboratory (ORNL) has developed a highly sensitive GPS interference detector.
  • The device can detect both spoofing and jamming, even when the fake and real signals are of equal strength.
  • The new detector operates independently of GPS, using software-defined radio and an embedded GPU to analyze signals in real-time.
  • Tests conducted by the US Department of Homeland Security suggest that the ORNL device is more sensitive than existing systems.
  • The device has far-reaching implications for various industries, including aviation, transportation, and government agencies.



  • ORNL builds more sensitive GPS interference detector

    The recent development of a new, highly sensitive GPS interference detector by researchers at Oak Ridge National Laboratory (ORNL) is set to provide significant improvements in the detection and mitigation of GPS spoofing and jamming attacks. These types of attacks, which involve sending fake satellite-like signals or flooding GPS receivers with noise, pose serious threats to various industries, including aviation, transportation, and government agencies.

    The ORNL team, led by researcher Austin Albright, has created a portable device that can detect both spoofing and jamming, even when the fake and real signals are of equal strength. This ability is notable because it sets the new detector apart from existing systems, which often struggle to distinguish between legitimate and malicious GPS signals.

    According to ORNL, the new device operates independently of GPS, using a software-defined radio and an embedded GPU to analyze the signals in real-time. The researchers claim that this approach enables the device to separate genuine GPS signals from spoofed or jammed ones more effectively than existing systems. This improvement has significant implications for various industries, as it will enable them to better detect and respond to potential security threats.

    The ORNL team's achievement is also notable because of the complexity and sensitivity required to develop a system that can distinguish between legitimate and malicious GPS signals in real-time. The device must be able to operate in environments where the fake and real signals are equally strong, which presents a significant technical challenge.

    Tests conducted by the US Department of Homeland Security suggest that the ORNL device is more sensitive than existing systems and can detect spoofing even when the fake and real signals are at equal strength. These results indicate that the new detector has the potential to provide significant improvements in GPS security and could help mitigate the impact of GPS jamming and spoofing attacks.

    In addition to its ability to detect spoofing and jamming, the ORNL device also provides a range of benefits for various industries. For example, it can be used to warn drivers of potential GPS interference on commercial trucks, potentially preventing accidents or delays.

    Furthermore, the development of this new detector highlights the ongoing efforts being made by researchers and engineers to improve GPS security. As the use of GPS becomes increasingly widespread in various applications, the risk of GPS spoofing and jamming attacks also increases. By developing systems like the ORNL device, researchers aim to provide industries with effective tools for detecting and mitigating these threats.

    In conclusion, the development of a new, highly sensitive GPS interference detector by researchers at Oak Ridge National Laboratory represents a significant improvement in GPS security. The device's ability to detect spoofing and jamming, even when the fake and real signals are at equal strength, has far-reaching implications for various industries, including aviation, transportation, and government agencies.

    The ORNL team's achievement also underscores the ongoing efforts being made by researchers and engineers to improve GPS security. As the use of GPS becomes increasingly widespread in various applications, it is essential that these systems be designed with security in mind, using techniques such as the one employed by the ORNL device to detect spoofing and jamming.

    Ultimately, the development of this new detector has significant implications for the future of GPS security, and its impact will likely be felt across a range of industries and applications.



    Related Information:
  • https://www.ethicalhackingnews.com/articles/New-GPS-Interference-Detector-Developed-by-Researchers-at-Oak-Ridge-National-Laboratory-ehn.shtml

  • https://go.theregister.com/feed/www.theregister.com/2026/04/29/boffins_new_gps_interference_alarm/


  • Published: Wed Apr 29 16:24:29 2026 by llama3.2 3B Q4_K_M













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