Nuclear Shielding

Lead shielding provides effective radiation protection in medical, industrial, research, and nuclear environments where X-rays and gamma radiation are present. With its high atomic number (Z = 82) and density of 11.34 g/cm³, lead is widely used to attenuate ionizing radiation, helping reduce radiation exposure and maintain safe working environments.

Known for its high shielding efficiency, versatility, and recyclability, lead can be manufactured in various forms, including lead sheets, lead bricks, germanium detector shields, and custom shielding components. These solutions can be adapted to different facility layouts, equipment configurations, and radiation protection requirements.

Lead shielding is commonly used in medical imaging facilities, nuclear medicine departments, industrial radiography, research laboratories, radiation detection systems, and isotope handling facilities. Standard and customized shielding solutions are available to support a wide range of operational and safety requirements.

Shielded doors provide effective radiation protection in nuclear, industrial, and research facilities where exposure to gamma and neutron radiation requires specialized shielding solutions. Constructed with lead, borated polyethylene (borated PE), or a combination of both, these doors are designed to maintain radiation protection while ensuring safe and reliable access to controlled areas.

Lead-lined doors provide shielding against gamma radiation and high-energy photons, while lead and borated polyethylene doors offer combined protection against gamma and neutron radiation. Various configurations can be customized to meet specific facility requirements, including door dimensions, shielding thickness, material composition, and operating mechanisms.

Shielded doors are suitable for nuclear facilities, radiation research laboratories, industrial irradiation environments, and other radiation-controlled areas. Optional features such as automated operation, safety interlocks, and remote-control systems support safe and efficient operation.

Tungsten shielding provides effective radiation protection in medical, industrial, and research environments, particularly in applications requiring high radiation attenuation within limited space. With its high atomic number (Z = 74) and density of 19.25 g/cm³, tungsten offers excellent shielding against X-rays and gamma radiation while enabling compact and space-efficient designs.

Known for its exceptional density, mechanical strength, and thermal stability, tungsten is well suited for applications requiring durable and reliable radiation protection. Its high melting point and structural strength make it suitable for demanding operating environments.

Tungsten shielding is widely used in nuclear medicine, medical imaging, radiopharmaceutical handling, industrial inspection, and research laboratories. A range of standard and customizable tungsten shielding solutions can accommodate different equipment configurations, operational needs, and radiation protection requirements.

Lead blankets provide flexible, temporary radiation shielding for maintenance operations, facility outages, and ALARA radiation protection programs. Designed to reduce radiation exposure in areas requiring temporary or repositionable shielding, lead blankets can be customized in various shapes, sizes, and lead thicknesses to meet specific operational requirements.

Constructed with high-purity lead enclosed in durable, contamination-resistant covers, these blankets offer effective radiation protection while allowing flexible positioning around pipes, valves, tanks, and other equipment. Various fastening options, including Velcro, grommets, and snap closures, support secure installation and easy repositioning.

Lead blankets are commonly used in nuclear power plants, research facilities, industrial environments, and radiation-controlled maintenance areas, providing adaptable shielding solutions for irregular surfaces and equipment configurations.

Neutron shielding provides specialized radiation protection in nuclear power plants, research reactors, spent fuel facilities, and environments involving neutron sources. Unlike gamma radiation, neutron radiation requires different shielding materials and techniques to effectively reduce radiation exposure and maintain safe operating conditions.

Neutron shielding solutions include borated polyethylene sheets, custom-machined components, boron carbide materials, and composite shielding assemblies. These materials are designed to moderate and absorb neutrons, while composite configurations can provide additional protection against gamma radiation.

Standard and customized neutron shielding solutions are available to accommodate different facility configurations, neutron flux levels, dose rate requirements, and operational needs.

Shielding walls provide effective radiation protection for nuclear power plants, research reactors, nuclear fuel cycle facilities, and other radiation-controlled environments. These solutions are designed to reduce radiation exposure while meeting specific facility layouts, dose rate requirements, and operational needs.

Available configurations include lead shielding panels, lead block assemblies, steel-lead-steel composite structures, and stainless steel structural components. Custom-engineered shielding walls can be designed according to technical drawings, spatial constraints, and radiation protection requirements, with components prepared for on-site assembly.

Shielding walls are commonly used for permanent hot cell structures, temporary maintenance barriers, and shielding upgrades to existing facilities, providing flexible solutions for a wide range of nuclear and industrial applications.

Shielded casks and containers provide reliable radiation protection for the safe storage, transportation, and disposal of radioactive materials in nuclear energy, research, and industrial environments. These solutions are designed to reduce radiation exposure while supporting safe handling and operational efficiency.

Available in various sizes and configurations, shielding solutions range from compact radioisotope containers to large-scale shielded casks designed for 200-litre drums. Custom configurations can accommodate different radioactive materials, shielding requirements, and operational needs.

Shielded casks and containers are commonly used in nuclear power plants, radioactive waste management facilities, research laboratories, and isotope handling operations, providing flexible solutions for radioactive material containment and handling.