<ici-import>
 <journal 	issn="2345-4229"/>
 <issue number="3" volume="11" year="2013" publicationDate="2013-07-01" numberOfArticles="10">
			<article externalId="A-10-1-464">
			<type>ORIGINAL_ARTICLE</type>
			
					<languageVersion language="en">
						<title>Changes in the gastric ghrelin concentration after whole-abdominal irradiation in rats: Is this related to the radiation-induced anorexia and weight loss?</title>
						<abstract>Background: Ghrelin is a hormone related to food intake in rodents and humans, mainly produced in stomach. This study aimed to determine the effect of irradiation on ghrelin concentration in the gastric mucosa of rats. Materials and Methods : Twenty-five rats were exposed to 15 Gy of whole-abdominal irradiation. Gastric tissue samples were obtained 1, 3, 7, 30, and 90 days after irradiation. Five non-irradiated rats were used as controls. The number of ghrelin cells that reacted with anti-ghrelin antibody was counted. Moreover, ghrelin mRNA expression was determined. Food intake and body weight changes were measured simultaneously. Results: Compared to the controls, irradiated rats showed a significantly decreased gastric ghrelin cell count, i.e., 29%, 30%, 32%, and 32% at 1, 3, 30, and 90 days, respectively, after irradiation (p &#60; 0.05). Irradiated rats also showed decreased ghrelin mRNA expression the expression decreased by 54.1%, 58.8%, 52.0%, and 52.7% at 1, 3, 30, and 90 days, respectively (p &#60; 0.05). Food intake of irradiated rats decreased continuously compared with the control rats, except at 90 days. Body weight of the irradiated rats was lower than that of the controls at 7 and 30 days. Conclusion: This study demonstrated that abdominal irradiation can reduce gastric ghrelin concentration. Though decrease of food intake and body weight was observed simultaneously, further evaluation needs to find out the relationship between gastric ghrelin level and food intake after exposure to irradiation.</abstract>
						<pdfFileUrl>http://ijrr.com/article-1-1055-en.pdf</pdfFileUrl>
						<publicationDate>2013-07-17</publicationDate>
						<pageFrom>131</pageFrom>
						<pageTo>136</pageTo>
				<keywords>
<keyword>Ghrelin</keyword>
<keyword>weight loss</keyword>
<keyword>anorexia</keyword>
<keyword>whole-abdominal irradiation</keyword>
<keyword>rat.</keyword>
</keywords>
				</languageVersion>
				


	<authors>
	<author>
	<name>B.</name>
	<surname>Lee</surname>
	     <order>1</order>
        <instituteAffiliation>Department of Otorhinolaryngology, Pusan National University Hospital and Biomedical Research Institute, Pusan National University School of Medicine, Busan, Republic of Korea</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>D.</name>
	<surname>Kim</surname>
	     <order>2</order>
        <instituteAffiliation>Department of Radiation Oncology, Pusan National University Hospital and Biomedical Research Institute, Pusan National University School of Medicine, Busan, Republic of Korea</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>W.</name>
	<surname>Kim</surname>
	<email>rokwt@hanmail.net</email>
	     <order>3</order>
        <instituteAffiliation>Department of Radiation Oncology, Pusan National University Hospital and Biomedical Research Institute, Pusan National University School of Medicine, Busan, Republic of Korea</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>J.</name>
	<surname>Lee</surname>
	     <order>4</order>
        <instituteAffiliation>Department of Otorhinolaryngology, Pusan National University Hospital and Biomedical Research Institute, Pusan National University School of Medicine, Busan, Republic of Korea</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>Y.</name>
	<surname>Lim</surname>
	     <order>5</order>
        <instituteAffiliation>Department of Otorhinolaryngology, Pusan National University Hospital and Biomedical Research Institute, Pusan National University School of Medicine, Busan, Republic of Korea</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>D.</name>
	<surname>Shin</surname>
	     <order>6</order>
        <instituteAffiliation>Department of Pathology, Pusan National University Hospital and Biomedical Research Institute, Pusan National University School of Medicine, Busan, Republic of Korea</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>J.</name>
	<surname>Nam</surname>
	     <order>7</order>
        <instituteAffiliation>Department of Radiation Oncology, Pusan National University Hospital and Biomedical Research Institute, Pusan National University School of Medicine, Busan, Republic of Korea</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>Y.</name>
	<surname>Ki</surname>
	     <order>8</order>
        <instituteAffiliation>Department of Radiation Oncology, Pusan National University Hospital and Biomedical Research Institute, Pusan National University School of Medicine, Busan, Republic of Korea</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>D.</name>
	<surname>Kim</surname>
	     <order>9</order>
        <instituteAffiliation>Department of Radiation Oncology, Pusan National University Hospital and Biomedical Research Institute, Pusan National University School of Medicine, Busan, Republic of Korea</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	</authors>


	</article>



			<article externalId="A-10-1-465">
			<type>ORIGINAL_ARTICLE</type>
			
					<languageVersion language="en">
						<title>Mechanism of Calf thymus DNA radioprotection by sucrose: A combined effect of scavenging action and altered water</title>
						<abstract>Background: Development of safe radioprotector is a challenging task. In this study radioprotective effect of sucrose has been demonstrated in calf thymus DNA (CtDNA). Sucrose is a free radical scavenger and also acts as osmolyte and therefore can influence the water activity around DNA and effects of radiation on DNA. Hoechst 33258 was used to probe the possible alteration in physicochemical properties due to altered hydration induced by sucrose in irradiated CtDNA. Materials and Methods: Calf thymus DNA (CtDNA), sucrose and Hoechst 33258 were obtained from Sigma Chemicals, USA. 60Co Gamma source (Gamma5000, BRIT India) was used for irradiation. Radiation induced structural destabilization was monitored spectrophotometrically (Cary Bio 100, Varian, Australia) by measuring CtDNA melting temperature. Changes in physicochemical properties (altered water activity, minor groove binding characteristics) were investigated using absorption and fluorescence spectroscopic properties of Hoechst 33258-CtDNA interactions in presence of sucrose. Results: The CtDNA melting temperature data suggest that sucrose reduced the effect of &#38;gamma-irradiation on CtDNA. Thermodynamics of binding interaction of Hoechst 33258 with irradiated CtDNA suggested favorable energetics accompanied by displacement of water molecules. Binding affinity in presence of sucrose was altered marginally at low concentration (&#60;0.5Osm). The marginal changes in absorption and fluorescence spectroscopic properties of Hoechst 33258-CtDNA interactions at higher concentration of sucrose suggested unaltered functional capability of CtDNA. Conclusion: This study suggests that sucrose can provide structural protection in &#38;gamma irradiated CtDNA. Both scavenging and altered water activities by sucrose contributed in the observed radioprotection. These physicochemical properties of sucrose can be considered for designing better radioprotector. The observations at low concentrations of sucrose appears important lead for further validation studies.</abstract>
						<pdfFileUrl>http://ijrr.com/article-1-1056-en.pdf</pdfFileUrl>
						<publicationDate>2013-07-21</publicationDate>
						<pageFrom>137</pageFrom>
						<pageTo>148</pageTo>
				<keywords>
<keyword>Radioprotection</keyword>
<keyword>CtDNA</keyword>
<keyword>water activity</keyword>
<keyword>scavenging</keyword>
<keyword>sucrose.</keyword>
</keywords>
				</languageVersion>
				


	<authors>
	<author>
	<name></name>
	<surname>Anuradha</surname>
	     <order>1</order>
        <instituteAffiliation>Chemical Radioprotector and Radiation Dosimetry Research Group, Division of Radiation Biosciences, Institute of Nuclear Medicine and Allied Sciences, Delhi-110054, India</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>M.S.</name>
	<surname>Alam</surname>
	     <order>2</order>
        <instituteAffiliation>Departments of Chemistry, Faculty of Science, Jamia Hamdard, New Delhi-110062, India</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>N.K.</name>
	<surname>Chaudhury</surname>
	<email>nkcinmas@rediffmail.com</email>
	     <order>3</order>
        <instituteAffiliation>Chemical Radioprotector and Radiation Dosimetry Research Group, Division of Radiation Biosciences, Institute of Nuclear Medicine and Allied Sciences, Delhi-110054, India</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	</authors>


	</article>



			<article externalId="A-10-1-466">
			<type>ORIGINAL_ARTICLE</type>
			
					<languageVersion language="en">
						<title>Passive neutron area monitor with CR39</title>
						<abstract>Background: In high-intensity, mixed and pulsed neutron fields the use of spectrometers or area monitors with active detectors is useless in these conditions neutron measuring devices must have a passive detector. Here a passive neutron area monitor with CR39 track detector was designed and the response was calculated. Materials and Methods: The response of a passive neutron area monitor with CR39 track detector has been calculated with the MCNPX code. To increase the detection efficiency a 10B converter was included. The response was calculated using 47 monoenergetic neutron sources. Results: A passive neutron area monitor using a CR39 with 10B converter was designed where fluence and H*(10) responses were calculated. Conclusion: The shape of the responses is similar to responses reported for neutron monitors with active detectors.</abstract>
						<pdfFileUrl>http://ijrr.com/article-1-1057-en.pdf</pdfFileUrl>
						<publicationDate>2015-11-27</publicationDate>
						<pageFrom>149</pageFrom>
						<pageTo>153</pageTo>
				<keywords>
<keyword>Neutron dosimetry</keyword>
<keyword>passive detector</keyword>
<keyword>CR-39</keyword>
<keyword>Monte Carlo</keyword>
<keyword>response.</keyword>
</keywords>
				</languageVersion>
				


	<authors>
	<author>
	<name>H.R.</name>
	<surname>Vega-Carrillo</surname>
	<email>fermineutron@yahoo.com</email>
	     <order>1</order>
        <instituteAffiliation>Unidad Académica de Estudios Nucleares, Universidad Autonoma de Zacatecas, Zacatecas, Zac. México</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>R.</name>
	<surname>Barquero</surname>
	     <order>2</order>
        <instituteAffiliation>Departamento de Radiología del Hospital Universitario Rio Hortega, Valladolid, Spain</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>G.A.</name>
	<surname>Mercado</surname>
	     <order>3</order>
        <instituteAffiliation>Unidad Academica de Matematicas Universidad Autónoma de Zacatecas, Zacatecas, Zac. México</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	</authors>


	</article>



			<article externalId="A-10-1-467">
			<type>ORIGINAL_ARTICLE</type>
			
					<languageVersion language="en">
						<title>Determination of radioactivity levels and hazards of sediment and rock samples in İkizdere and Kaptanpaşa Valley, Turkey</title>
						<abstract>Background: The radioactivity levels in sediment and rock samples of İkizdere and Kaptanpaşa Valley have been determined. To our knowledge, there seems to be no information about radioactivity level in the İkizdere and Kaptanpaşa Valley sediments and rocks so far. Materials and Methods: The average radium equivalent activity (Raeq), the total absorbed dose rate (D), the external risk index (Hex) and the annual effective dose equivalent (AEDE) which will be defined later have been calculated and compared with the results in literature. Rock characterization was also investigated using thin section and X-ray diffraction (XRD) analysis. Also gross &#38;alpha and &#38;beta activity concentrations were calculated for some rock samples. Results: Their radiological implications were also calculated and compared with the international recommended values. The gross &#38;alpha activity is generally lower than the corresponding gross &#38;beta activity for some rock samples. Rock characterization was also investigated using thin section and XRD analysis. Conclusion: This study can be used as a baseline for future investigations and the data obtained in this study may be useful for natural radioactivity mapping. It seems necessary to determine the radioactivity concentrations in sediments and rock of other parts of Turkey. The results may also be used as a reference data for monitoring possible radioactivity pollutions in future.</abstract>
						<pdfFileUrl>http://ijrr.com/article-1-1058-en.pdf</pdfFileUrl>
						<publicationDate>2015-11-27</publicationDate>
						<pageFrom>155</pageFrom>
						<pageTo>165</pageTo>
				<keywords>
<keyword>Sediment</keyword>
<keyword>rock</keyword>
<keyword>natural radioactivity</keyword>
<keyword>İkizdere and Kaptanpaşa Valley</keyword>
<keyword>XRD.</keyword>
</keywords>
				</languageVersion>
				


	<authors>
	<author>
	<name>R.</name>
	<surname>Keser</surname>
	<email>recep.keser@erdogan.edu.tr</email>
	     <order>1</order>
        <instituteAffiliation>Department of Physics, Faculty of Sciences and Arts, RTE University, 53100, Rize, Turkey</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>F.</name>
	<surname>Korkmaz Görür</surname>
	     <order>2</order>
        <instituteAffiliation>Department of Physics, Faculty of Sciences and Arts, Abant İzzet Baysal  University, 14280, Bolu, Turkey</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>İ</name>
	<surname>Alp</surname>
	     <order>3</order>
        <instituteAffiliation>KTU, Faculty of Engineering, Mining Engineering, 61100, Trabzon-Turkey</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>N.T.</name>
	<surname>Okumusoğlu</surname>
	     <order>4</order>
        <instituteAffiliation>Department of Physics, Faculty of Sciences and Arts, Ondokuz Mayıs University, Samsun, Turkey</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	</authors>


	</article>



			<article externalId="A-10-1-468">
			<type>ORIGINAL_ARTICLE</type>
			
					<languageVersion language="en">
						<title>Assessment of the role of specific absorption rate of mobile phones on the induction of microwave-induced survival adaptive responses after exposure to lethal doses of gamma radiation</title>
						<abstract>Background: Whether exposure to common electromagnetic fields affects human health adversely has been a controversial issue. The main goal of this study was to assess the role of 900 MHz microwave radiations with different specific absorption rates (SARs), emitted from some widely used cell phones, on the induction of adaptive response in male Balb/c mice after receiving a lethal dose of gamma radiation. Materials and Methods: This study was conducted on 120 male Balb/c mice. The animals were divided into groups of 20 mice each (6 groups). Group one (the control group) received neither microwave radiation nor the lethal dose of gamma radiation. Group two was exposed only to the lethal dose of 8.8 Gy. The mice in group three were first exposed to low SAR 900 MHz microwave radiations emitted from a cell phone for six hours (3 hours in the morning and 3 hours in the afternoon) for 5 days and then were exposed to a lethal dose of 8.8 Gy on day six. The mice in group 4 were treated as those in group 3 but with a moderate SAR and the mice in group 5 were also treated as those in groups 3 and 4 but with a high SAR. The mice in group six were exposed only to high SAR 900 MHz microwaves. Results: All groups were monitored for 12 days and their daily mortality rates were recorded. The results showed that there was a statistically significant difference between group two (the animals exposed only to lethal dose of gamma radiation) and the groups with a pre-exposure to microwave radiations before receiving the lethal dose. Conclusion: To the best of our knowledge, this is the first study that investigates the role of SAR on the induction of microwave-induced survival adaptive response. It can be concluded that 900 MHz microwaves emitted from cell phones, regardless of their SAR can induce adaptive responses which make the animals more resistant to subsequent lethal doses of ionizing radiation. These findings also confirm our preliminary findings obtained in a previous study.</abstract>
						<pdfFileUrl>http://ijrr.com/article-1-1059-en.pdf</pdfFileUrl>
						<publicationDate>2015-11-27</publicationDate>
						<pageFrom>167</pageFrom>
						<pageTo>173</pageTo>
				<keywords>
<keyword>Adaptive response</keyword>
<keyword>non-ionizing radiation</keyword>
<keyword>microwave</keyword>
<keyword>GSM mobile phone</keyword>
<keyword>survival.</keyword>
</keywords>
				</languageVersion>
				


	<authors>
	<author>
	<name>M.</name>
	<surname>Haghani</surname>
	     <order>1</order>
        <instituteAffiliation>Department of Nuclear Engineering (Radiation Medicine Section), Science and Research Branch, Islamic Azad University, Tehran, Iran</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>S.M.J.</name>
	<surname>Mortazavi</surname>
	<email>mmortazavi@sums.ac.ir</email>
	     <order>2</order>
        <instituteAffiliation>Medical Physics &#38; Medical Engineering Department, School of Medicine, Shiraz University of Medical Sciences, Shiraz, Iran</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>D.</name>
	<surname>Sardari</surname>
	     <order>3</order>
        <instituteAffiliation>Department of Nuclear Engineering (Radiation Medicine Section), Science and Research Branch, Islamic Azad University, Tehran, Iran</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>M.A.</name>
	<surname>Mosleh-Shirazi</surname>
	     <order>4</order>
        <instituteAffiliation>The Center for Research on Radiological Sciences, School of Allied Medical Sciences, Shiraz University of Medical Sciences, Shiraz, Iran</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>A.</name>
	<surname>Mansouri</surname>
	     <order>5</order>
        <instituteAffiliation>Fars Communication (Mokhaberat) Company, Shiraz, Iran</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	</authors>


	</article>



			<article externalId="A-10-1-469">
			<type>ORIGINAL_ARTICLE</type>
			
					<languageVersion language="en">
						<title>Beam characteristics and leakage assessment of an in-house intra-operative electron applicator system</title>
						<abstract>Background: Intraoperative radiation therapy (IORT) technique is used to treat a surgically exposed tumor or tumor bed in the treatment of locally advanced intraabdominal, retroperitoneal, pelvic, thoracic, breast and soft tissue tumors. One way to perform IORT is to use an existing linac and modify the treatment head using an applicator system. In this study the objectives were to design, and build an in-house IORT applicator system, perform an acquisition of dosimetry data and characterize the IORT radiation parameters. Materials and Methods: IORT applicator system developed in this research consists of three flat applicators with inner diameters ( ф) of 3, 5 and 9 cm and one tube ( ф =3 cm) with a 45-degree beveled end. Beam characteristics evaluated include percent depth dose distributions, beam profiles, and leakage dose distributions. Measurements were performed using a Scanditronix (p-si) diode field detector in a Scanditronix (RFAplus) 3-D water phantom. Results: Compared to the standard applicator, depth dose curves for intra-operative cones are shallower surface dose is higher and the maximum peripheral dose is in the order of 9.6%. Conclusion: Using a 10 MeV electron beam, the cone system developed in this study is suitable for treating tumors of width and depth ranges of 1.9-8.4 cm and 14-29 mm, respectively.</abstract>
						<pdfFileUrl>http://ijrr.com/article-1-1060-en.pdf</pdfFileUrl>
						<publicationDate>2015-11-27</publicationDate>
						<pageFrom>175</pageFrom>
						<pageTo>181</pageTo>
				<keywords>
<keyword>Intra-cavitary cone</keyword>
<keyword>IORT</keyword>
<keyword>electron boost.</keyword>
</keywords>
				</languageVersion>
				


	<authors>
	<author>
	<name>P.</name>
	<surname>Shokrani</surname>
	<email>Shokrani@med.mui.ac.ir</email>
	     <order>1</order>
        <instituteAffiliation>Isfahan University of Medical sciences, Department of Medical Physics, Isfahan, Iran</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>M.</name>
	<surname>Soltani</surname>
	     <order>2</order>
        <instituteAffiliation>Isfahan University of Medical sciences, Department of Medical Physics, Isfahan, Iran</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	</authors>


	</article>



			<article externalId="A-10-1-470">
			<type>ORIGINAL_ARTICLE</type>
			
					<languageVersion language="en">
						<title>Study of distribution of 226Ra, 232Th and 40K in different rock formations and their dose estimation in and around Chickmagalur, India</title>
						<abstract>Background: The concentrations of radionuclides like 226Ra, 232Th and 40K and the dose rate are measured in igneous and metamorphic rock formations in and around Chickmagalur. A total of 236 samples from 13 different locations around study area were analyzed. Materials and Methods: The activity concentrations of the three radioactive elements were determined for mean period of 25000 s using HPGe (GMX - 10190) detector and the dose calculations were made using standard formulae. Results: The mean activity concentrations in igneous rocks recorded were 36.6 Bqkg-1, 73.2 Bqkg-1 and 992.3 Bqkg-1 for 226Ra, 232Th and 40K respectively. The mean activity concentrations in metamorphic rocks were 17.2 Bqkg-1, 28.1 Bqkg-1 and 617.8 Bqkg-1 for 226Ra, 232Th and 40K respectively. Assuming 20% occupancy factor, the corresponding mean annual effective dose due to igneous and metamorphic rocks were 169.6 &#181;Sv and 90 &#181;Sv respectively. Conclusion: The concentrations of radionuclides were found to be in similar with global and Indian average (1-3).</abstract>
						<pdfFileUrl>http://ijrr.com/article-1-1061-en.pdf</pdfFileUrl>
						<publicationDate>2015-11-27</publicationDate>
						<pageFrom>183</pageFrom>
						<pageTo>187</pageTo>
				<keywords>
<keyword>Radionuclides</keyword>
<keyword>Igneous rock</keyword>
<keyword>metamorphic rock and effective dose.</keyword>
</keywords>
				</languageVersion>
				


	<authors>
	<author>
	<name>S.</name>
	<surname>Manjunatha</surname>
	<email>manjunatha_s@yahoo.com</email>
	     <order>1</order>
        <instituteAffiliation>Department of Physics, PES Institute Technology and Management, Shimoga, 577204, India</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>A.</name>
	<surname>Jayasheelan</surname>
	     <order>2</order>
        <instituteAffiliation>Department of Physics, GFGC, Sira, Karnataka, India</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>P.</name>
	<surname>Venkataramanaiah</surname>
	     <order>3</order>
        <instituteAffiliation>PG Studies in Physics, Manasagongotri, Mysore, India</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	</authors>


	</article>



			<article externalId="A-10-1-471">
			<type>OTHERS_CITABLE</type>
			
					<languageVersion language="en">
						<title>Calibration of iridium-192 source by ionization chamber for high dose rate brachytherapy</title>
						<abstract>Background: The effectiveness and safety of brachytherapy treatment is mainly concerned with the calibration of sources and their traceability to internationally accepted Standards. Secondary Standard Dosimetry Laboratory (SSDL) does not offer calibration of ionization chambers with gamma-ray spectrum of high dose rate source 192Ir . This work has been carried out to calibrate the high dose rate (HDR) 192Ir sources. Materials and Methods: An interpolation procedure, using calibrations above 1.25 MeV (60Co), and below 135 kV X-rays (61.1 keV), the exposure-weighted average energy 397 keV of 192Ir is employed. Using Farmer ionization chamber HDR 192Ir source has been calibrated by free in-air measurement technique and then the calibrated source has been used to calibrate well-type ionization chamber. Results: Difference between in-air measurement and that of manufacturer&#8217;s remained within &#177; 3%, and the difference between in-air measurement and well-type chamber remained within &#177; 1%. Comparison between well-type measurements and manufacturer values shows differences less than &#177; 2%. All these differences are within the acceptable tolerance limits. Conclusion: The method presented shows good degree of accuracy so that the traceability of calibration is assured. Installation of a new brachytherapy source needs to be calibrated by in-air measurement technique and then this calibrated source should be used for well chamber calibration. Brachytherapy community is suggested to calibrate their sources with this method.</abstract>
						<pdfFileUrl>http://ijrr.com/article-1-1062-en.pdf</pdfFileUrl>
						<publicationDate>2015-11-27</publicationDate>
						<pageFrom>189</pageFrom>
						<pageTo>193</pageTo>
				<keywords>
<keyword>Brachytherapy</keyword>
<keyword>calibration</keyword>
<keyword>ionization chamber</keyword>
<keyword>HDR.</keyword>
</keywords>
				</languageVersion>
				


	<authors>
	<author>
	<name>M.A.</name>
	<surname>Gadhi</surname>
	     <order>1</order>
        <instituteAffiliation>Bahawalpur Institute of Nuclear Medicine and Oncology (BINO) Bahawalpur, Pakistan</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>S.A.</name>
	<surname>Buzdar</surname>
	<email>saeed.buzdar@iub.edu.pk</email>
	     <order>2</order>
        <instituteAffiliation>Department of Physics, The Islamia University of Bahawalpur, Pakistan</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>M.</name>
	<surname>Afzal</surname>
	     <order>3</order>
        <instituteAffiliation>Department of Physics, The Islamia University of Bahawalpur, Pakistan</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>Sh.</name>
	<surname>Fatmi</surname>
	     <order>4</order>
        <instituteAffiliation>Bahawalpur Institute of Nuclear Medicine and Oncology (BINO) Bahawalpur, Pakistan</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>M.S.</name>
	<surname>Akhtar</surname>
	     <order>5</order>
        <instituteAffiliation>Bahawalpur Institute of Nuclear Medicine and Oncology (BINO) Bahawalpur, Pakistan</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>A.H.</name>
	<surname>Nizamani</surname>
	     <order>6</order>
        <instituteAffiliation>Department of Physics, University of Sind, Jamshoro, Hyderabad, Pakistan</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	</authors>


	</article>



			<article externalId="A-10-1-472">
			<type>CASE_STUDY</type>
			
					<languageVersion language="en">
						<title>Pancreatic adenocarcinoma in a patient with relapsed Hodgkin’s lymphoma</title>
						<abstract>After curative treatment of Hodgkin&#8217;s lymphoma, increased risk of certain solid tumors has been reported. To best of our knowledge this is the first report of metachronous pancreatic adenocarcinoma which developed outside the previous radiation field in a patient with relapse Hodgkin&#8217;s lymphoma. Herein we present an 81-year-old female who developed pancreatic adenocarcinoma four years after the curative treatment of Hodgkin&#8217;s lymphoma.</abstract>
						<pdfFileUrl>http://ijrr.com/article-1-1063-en.pdf</pdfFileUrl>
						<publicationDate>2015-11-27</publicationDate>
						<pageFrom>195</pageFrom>
						<pageTo>198</pageTo>
				<keywords>
<keyword>Hodgkin’s disease</keyword>
<keyword>Metachronous</keyword>
<keyword>Pancreas adenocarcinoma</keyword>
<keyword>Radiotherapy.</keyword>
</keywords>
				</languageVersion>
				


	<authors>
	<author>
	<name>G.</name>
	<surname>Yavas</surname>
	     <order>1</order>
        <instituteAffiliation>Selcuk University, Selcuklu Faculty of Medicine, Department of Radiation Oncology, Konya, Turkey</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>M.</name>
	<surname>Araz</surname>
	     <order>2</order>
        <instituteAffiliation>Selcuk University, Selcuklu Faculty of Medicine, Department of Medical Oncology, Konya, Turkey</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>C.</name>
	<surname>Yavas</surname>
	     <order>3</order>
        <instituteAffiliation>Konya Training and Research Hospital, Department of Radiation Oncology, Konya, Turkey</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>F.</name>
	<surname>Baba</surname>
	     <order>4</order>
        <instituteAffiliation>Selcuk University, Selcuklu Faculty of Medicine, Department of Pathology, Konya, Turkey</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>O.</name>
	<surname>Ata</surname>
	     <order>5</order>
        <instituteAffiliation>Selcuk University, Selcuklu Faculty of Medicine, Department of Medical Oncology, Konya, Turkey</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	</authors>


	</article>



			<article externalId="A-10-1-473">
			<type>OTHERS_CITABLE</type>
			
					<languageVersion language="en">
						<title>Deep space missions and the issue of overcoming the problem of space radiation</title>
						<abstract>As a member of the United Nations Committee on the Peaceful Uses of Outer Space (COPUOS), Iran has a long-term space exploration program. Space radiation is one of the challenges facing humans when they go outside Earth&#39;s protective atmosphere and magnetic field. Space is an environment that the cardinal principles of radiation protection i.e. time, distance and shielding cannot be effectively applied. On the other hand, well-known limitations of physical shielding prompt us to explore biological methods for inducing radioresistance during space missions. Screening of the candidates of long-term space missions by ground-based in vitro adaptive response studies might be helpful. It has recently been shown that the detrimental effects of exposure to protons and HZE particles can be prevented by some dietary supplements. Interestingly, in contrast with radioprotectors, these dietary supplements can prevent radiation induced detrimental effects even when applied several days after exposure to radiation. It seems that finding appropriate radiation mitigators with a post-exposure time window in excess of 24 hours will be a critical goal in planning future manned space missions. In this paper, the advantages of biological shielding over current well defined physical shielding will be discussed.</abstract>
						<pdfFileUrl>http://ijrr.com/article-1-1064-en.pdf</pdfFileUrl>
						<publicationDate>2015-11-27</publicationDate>
						<pageFrom>199</pageFrom>
						<pageTo>202</pageTo>
				<keywords>
<keyword>Space Radiation</keyword>
<keyword>Astronauts</keyword>
<keyword>Adaptive response</keyword>
<keyword>Long-term space travel</keyword>
<keyword>cosmic radiation</keyword>
<keyword>Radiation Protection</keyword>
<keyword>Shielding.</keyword>
</keywords>
				</languageVersion>
				


	<authors>
	<author>
	<name>S.M.J.</name>
	<surname>Mortazavi</surname>
	     <order>1</order>
        <instituteAffiliation>Department of Medical Physics, School of Medicine and the Center for Research in Radiological Sciences, Shiraz University of Medical Sciences, Shiraz, Iran</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	<author>
	<name>H.</name>
	<surname>Mozdarani</surname>
	<email>mozdarah@modares.ac.ir</email>
	     <order>2</order>
        <instituteAffiliation>Department of Medical Genetics, Faculty of Medical Sciences, Tarbiat Modares University, Tehran, Iran</instituteAffiliation>  
	    <role>AUTHOR</role>
	 </author>
	</authors>


	</article>


	</issue>
 </ici-import>
 
  
  
  
  
 