Introducing a novel coefficient on mixed-nanoparticles material: relationship between the theoretical and experimental densities

Abstract

Nanoparticles (NPs) indicating a unique potential in bioradiation and nuclear reactor shielding are employed in many fields due to their particular specifications leading improving the mechanical properties as well as pore structure of the concrete-shield. The aim was to introduce a novel coefficient ( ), namely the experimental to theoretical density ratio for mixed-NPs material at various nanoparticles percent concentrations ( ) based on pure mathematical aspects along with the some suitable physical purposes by Monte Carlo method. The change in the mixture density to the change in is always proportional to the value. The density will become maximum at the in which the physical, morphological and chemical features of NPs along with the amounts of voids in the material have a key role over estimating porosity percentage. The NPs’ separation probability as born-cascaded-pairs towards very small radii may be formulated as where and are constant values. In conclusion, the theoretical results may be experimentally used in future work for different applications such as designing shield at a nuclear facility.

Assessment of absorbed dose in deformed breast tissue by Monte Carlo simulation

“…The purpose of irradiating tissues is the recognition of abnormalities and the treatment of abnormal tissues with a minimum dose delivered to the other healthy tissues. This may be achieved using suitable shielding, correct deformation of the normal tissues, or both [13][14][15][16][17][18][19][20][21][22]. Here, the deformation from the CC to CR shape was simulated by the Monte Carlo method and the dose and KVs were compared between shapes.…”