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Fractional Probability of Compton Scattering Interaction of SPC-SPI Particleboards, Water and Solid Water Phantoms: (a) SPC/NaOH/IA-PAE/R spp. and (b) SPI/NaOH/IA-PAE/R spp. for the Photon Energy Range 6-15 MeV.

Fractional Probability of Compton Scattering Interaction of SPC-SPI Particleboards, Water and Solid Water Phantoms: (a) SPC/NaOH/IA-PAE/R spp. and (b) SPI/NaOH/IA-PAE/R spp. for the Photon Energy Range 6-15 MeV.

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We developed soy protein concentrate–soy protein isolate bonded Rhizophora spp. particleboard phantoms using sodium hydroxide and a bio-based curing agent (itaconic acid polyamidoamine-epichlorohydrin resin). The probability of photon interactions was obtained at selected energies using Monte Carlo simulation with EGSnrc PEGS4 and used to interpola...

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... becomes a dominant process. In the high-energy region, a particular phase of absorption begins to dominate, i.e. pair production (Attix, 1986;Khan, 2010). It is worth noting that the particleboard samples show almost similar variations throughout based on the dominance of different photon interaction processes in the different energy regions. From Figs. 2(a-b), it is observed that the interaction probabilities inside the particleboard samples are close to that of water and solid water phantoms within the energy range 6 MeV to 15 MeV. This demonstrates that SPC-SPI-based materials can be used as tissue substitute phantoms with an impact almost similar to water, particularly with respect to ...

Citations

... root Bonded with natural gum Arabic Taghizadeh Tousi et al. (2015) Bonded with Serishoom adhesive Ngu et al. (2015) Treated with PF and UF Rabaiee et al. (2015) Bonded with soy protein (M F Mohd Yusof et al., 2016Yusof et al., , 2015 Bonded with tannin Ababneh et al. (2016) Bonded with almond gum (Omar, 2017) Treated with PF and bio-oil PF (BPF) Hamid et al. (2018) Bonded with corn starch Alshipli et al. (2018) Bonded with epoxy resin (D. Samson et al., 2020;D O Samson et al., 2020bD O Samson et al., , 2020aDamilola et al., 2020) Treated with defatted soy four (DSF) and soy protein isolate (SPI) modifed by sodium hydroxide and itaconic acid polyamidoamine-epichlorohydrin (IA-PAE) adhesive (Zuber et al., 2020a(Zuber et al., , 2020b(Zuber et al., , 2020c Bonded with soy flour and lignin; coated with gloss finish for Rhizophora spp. The outcomes revealed that Rhizophora spp. ...
... The incorporation of adhesive will improve the physical and mechanical strength of the fabricated particleboard, boosting its The measurement of percentage depth dose (PDD) to evaluate the attenuation properties of the sample at electron and photon energy ranges (eg. 6 MV, 10 MV, 5 MeV, 12 MeV) (Banjade et al., 2001;Bradley et al., 1991;Marashdeh et al., 2012) Determination of scattering properties Determination of scattering properties based on channel shift, measured scattered photon energy and count per second by using Compton scattering method Syazwina et al. (2012) Beam quality index Measurement of beam quality index at electron and photon energy ranges by using tissue phantom ratio (TPR) analysis Yusof et al. (2018) Determination of depth dose PDD was measured using radiation dosimeter such as ionization chamber (IC), thermoluminescent dosimeter (TLD) or Gafchromic film in comparison with water phantom to study the therapeutic depth dose for the phantom (Damilola et al., 2020;Hamid et al., 2018;Yusof et al., 2018) Image quality test Image contrast ...
... Extensive studies were also carried out by another researcher, adopting the potential of soy protein as adhesive material in the fabrication of Rhizophora spp. particleboard as phantom material (Damilola et al., 2020;D. Samson et al., 2020;D O Samson et al., 2020bD O Samson et al., , 2020aDamilola et al., 2020). ...
Article
Impending challenges in radiation dose estimation in patients especially in radiotherapy and nuclear medicine are of great concern. There is an urgent need to employ a human-like medium for verification before any radiation-related treatment or procedure to safeguard the patient and to ensure accuracy and efficiency of the treatment given. Rhizophora spp. is among the extensively studied alternative phantom material besides the widely commercialized resin-based phantom. This paper serves to review the evolution of Rhizophora spp. as phantom material and recent development of Rhizophora spp. phantom in medical physics applications and radiation study.