Nuclear Safety
AI is being used to interpret radiation data, reduce false alarms, and support faster operational decisions. This article reviews how AI is currently applied in systems such as RadNet, EURDEP, SPEEDI, and border-monitoring networks, alongside research from DARPA and the IAEA.
What happens when materials that power our medical treatments and industrial processes, like Cobalt-60 (Co-60) and Cesium-137 (Cs-137), are caught in a fire? It’s a scenario with serious implications for public safety and our environment. These radioactive sources, vital in everything from cancer therapy to food irradiation, could accidentally
Scrap_Yards
Uncover the risks of radioactive scrap & learn how radiation detection protects your scrap yard. Essential guide to safety, compliance & preventing costly incidents.
newswire
Explore the biggest April 2025 news in radiation detection — product launches, partnerships, financial insights & tech breakthroughs driving industry growth.
basics
Explore how Radiation Portal Monitors (RPMs) safeguard borders, ports, and facilities by detecting invisible radioactive threats. Learn how they work and why they are crucial for global security.
newswire
Explore the top innovations and policy updates in radiation detection from March 2025—impacting security, medicine, and nuclear tech.
basics
Explore how different radiation detectors work, from gas-filled tubes and scintillators to semiconductors and passive dosimeters. Learn the physics and applications in this accessible guide for an educated audience.
Explore the biggest April 2025 news in radiation detection — product launches, partnerships, financial insights & tech breakthroughs driving industry growth.
Explore the science behind ionizing and non-ionizing radiation. Learn about short-term and long-term health effects, dose impacts, medical uses, and safety guidelines based on current research.
Radiation detection identifies and measures ionizing radiation, including alpha, beta, gamma, and X-rays. Instruments like Geiger counters, scintillation detectors, and ionization chambers monitor radiation levels to ensure safety and regulatory compliance across various fields.
A "dirty bomb" is a radiological dispersal device (RDD) that combines explosives with radioactive material. While relatively easy to construct, they are not efficient killing devices and pose technical challenges for dispersion. International condemnation and severe consequences deter their use.
Understanding Radiation Detection
Explore the science behind ionizing and non-ionizing radiation. Learn about short-term and long-term health effects, dose impacts, medical uses, and safety guidelines based on current research.
Radiation, from sunlight to medical tech, is all around us but can be both helpful and harmful. Understanding ionizing vs. non-ionizing types, health risks, and safety limits is key to making smart choices for health, tech, and the environment. Let’s unpack the science behind the scenes.
Radiation detection identifies and measures ionizing radiation, including alpha, beta, gamma, and X-rays. Instruments like Geiger counters, scintillation detectors, and ionization chambers monitor radiation levels to ensure safety and regulatory compliance across various fields.
Protecting Public Events from Nuclear Threats: How Security Measures Keep Us Safe. Learn how nuclear security measures prevent radiological threats at major public events. Also, learn about risks, detection methods, and emergency response strategies.
A "dirty bomb" is a radiological dispersal device (RDD) that combines explosives with radioactive material. While relatively easy to construct, they are not efficient killing devices and pose technical challenges for dispersion. International condemnation and severe consequences deter their use.
Are We Ready for a ‘Dirty Bomb’ Attack? A radiological attack could cause mass panic, but smart planning can save lives and costs. Research shows that the most efficient strategy is a mix of rapid screening and targeted antidote use. How should governments prepare?
February 2025 Industry News: Key Updates in Radiation Detection & Security Screening
Helium-3 vs Helium-4 as Neutron Detector Gases: A detailed comparison of their mechanisms, efficiency, costs, and applications. Discover why Helium-4 is a strong alternative in specific scenarios.
Discover how drones are transforming radiation detection in Chernobyl’s Red Forest. Learn about cutting-edge technology, key findings, and how these innovations enhance safety, improve accuracy, and support environmental monitoring in one of the world’s most hazardous zones.
Explore how drone radiation detection systems boost safety and efficiency by mapping hazardous zones, inspecting nuclear facilities, and enhancing disaster response. Discover cutting-edge sensor tech and real-world applications driving innovation.
How do countries prevent radioactive materials from slipping into imported goods? From high-tech scanners in the U.S. to Japan’s post-Fukushima vigilance, nations employ diverse strategies to protect public health and security. Explore the global efforts shaping radiation monitoring today.
Helium-4 detectors revolutionize uranium detection by using photon active interrogation to capture fast neutrons. Their superior gamma-ray rejection and stable performance enable reliable identification of shielded nuclear materials, boosting nuclear security.