An ionizing radiation shielding panel comprising a core layer, a first layer on a first side of the core layer and a second layer on a second side of the core layer, opposite to the first side. The core layer comprises radiation attenuation material which may be particles of barite. The first and second layers each comprise a permeable reinforcement structure and each of the first, second and core layers are permeated with a binder. In the construction of the panel, the binder is infected into a mould containing the other constituents of the panel. The ionizing radiation shielding panel can be used in the housing of an x-ray inspection apparatus.

The present disclosure, in an embodiment, is a facility that includes a device configured to generate a beam having an energy range of 5 MeV to 500 MeV, a first radiation shielding wall surrounding the device, a second radiation shielding wall surrounding the first radiation shielding wall, radiation shielding fill material positioned between the first radiation shielding wall and the second radiation shielding wall forming a first barrier. In embodiments, the radiation shielding fill material includes at least fifty percent by weight of an element having an atomic number from 12 to 83, and a thickness of the first barrier is 0.5 meter to 6 meters.

A mobile radiation oncology coach system is disclosed. The mobile radiation oncology coach system comprise a trailer having a control console area and a treatment area, the treatment area is equipped with a medical treatment facility. The mobile radiation oncology coach system further comprise an internal shielding provided between the control console area and the treatment area. The mobile radiation oncology coach system further comprise an external shielding provided at the outside of the trailer.

A mobile radiation oncology coach system is disclosed. The mobile radiation oncology coach system comprise a trailer having a control console area and a treatment area, the treatment area is equipped with a medical treatment facility. The mobile radiation oncology coach system further comprise an internal shielding provided between the control console area and the treatment area. The mobile radiation oncology coach system further comprise an external shielding provided at the outside of the trailer.

The present disclosure, in an embodiment, is a facility that includes a device configured to generate a beam having an energy range of 5 MeV to 500 MeV, a first radiation shielding wall surrounding the device, a second radiation shielding wall surrounding the first radiation shielding wall, radiation shielding fill material positioned between the first radiation shielding wall and the second radiation shielding wall forming a first barrier. In embodiments, the radiation shielding fill material includes at least fifty percent by weight of an element having an atomic number from 12 to 83, and a thickness of the first barrier is 0.5 meter to 6 meters.

Disclosed is a radioprotective building block for building a wall that is able to form a screen to ionizing radiation. The radioprotective building block includes:a core made of at least one radioprotective material, anda shell enclosing said core and including at least one shell part that is fitted around the core.

Disclosed is a radioprotective building block for building a wall that is able to form a screen to ionizing radiation. The radioprotective building block includes:a core made of at least one radioprotective material, anda shell enclosing said core and including at least one shell part that is fitted around the core.

A modular structure is disclosed that shields people from radiation typically encountered in radiotherapy rooms. The structure can be easily assembled without cracks. Moreover, the structure can be assembled and repaired quickly, without interrupting treatments for long periods of time. The structure is made of two general types of modules. A base module is made up of two cuboids fused along facing long edges and offset, one from the other, both vertically and horizontally. A complementary module is made of a single flatter shaped cuboid. It is designed to fill gaps that appear at the top and bottom of the assembled array of base modules. These modules, as configured, allows several structures to be assembled by quick and simple fitting and horizontal and vertical stacking of the modules. The modules can be manufactured from low cost materials such as metal casing filled with metal powder.

A modular structure is disclosed that shields people from radiation typically encountered in radiotherapy rooms. The structure can be easily assembled without cracks. Moreover, the structure can be assembled and repaired quickly, without interrupting treatments for long periods of time. The structure is made of two general types of modules. A base module is made up of two cuboids fused along facing long edges and offset, one from the other, both vertically and horizontally. A complementary module is made of a single flatter shaped cuboid. It is designed to fill gaps that appear at the top and bottom of the assembled array of base modules. These modules, as configured, allows several structures to be assembled by quick and simple fitting and horizontal and vertical stacking of the modules. The modules can be manufactured from low cost materials such as metal casing filled with metal powder.

The present disclosure, in an embodiment, is a facility that includes a device configured to generate a beam having an energy range of 5 MeV to 500 MeV, a first radiation shielding wall surrounding the device, a second radiation shielding wall surrounding the first radiation shielding wall, radiation shielding fill material positioned between the first radiation shielding wall and the second radiation shielding wall forming a first barrier. In embodiments, the radiation shielding fill material includes at least fifty percent by weight of an element having an atomic number from 12 to 83, and a thickness of the first barrier is 0.5 meter to 6 meters.