<?xml version="1.0" encoding="utf-8"?>
<journal>
<title></title>
<title_fa></title_fa>
<short_title>International Journal of Radiation Research</short_title>
<subject></subject>
<web_url>http://www.ijrr.com</web_url>
<journal_hbi_system_id>79</journal_hbi_system_id>
<journal_hbi_system_user>journal79</journal_hbi_system_user>
<journal_id_issn></journal_id_issn>
<journal_id_issn_online></journal_id_issn_online>
<journal_id_pii></journal_id_pii>
<journal_id_doi></journal_id_doi>
<journal_id_iranmedex></journal_id_iranmedex>
<journal_id_magiran></journal_id_magiran>
<journal_id_sid></journal_id_sid>
<journal_id_nlai></journal_id_nlai>
<journal_id_science></journal_id_science>
<language>en</language>
<pubdate>
	<type>jalali</type>
	<year>1388</year>
	<month>12</month>
	<day>1</day>
</pubdate>
<pubdate>
	<type>gregorian</type>
	<year>2010</year>
	<month>3</month>
	<day>1</day>
</pubdate>
<volume>7</volume>
<number>4</number>
<publish_type>online</publish_type>
<publish_edition>1</publish_edition>
<article_type>fulltext</article_type>
<articleset>
	<article>


	<language>en</language>
	<article_id_issn></article_id_issn>
	<article_id_issn_online></article_id_issn_online>
	<article_id_pubmed></article_id_pubmed>
	<article_id_pii></article_id_pii>
	<article_id_doi></article_id_doi>
	<article_id_iranmedex></article_id_iranmedex>
	<article_id_magiran></article_id_magiran>
	<article_id_sid></article_id_sid>
	<title_fa></title_fa>
	<title>Prostate Helical Tomotherapy: A semi-empirical estimation of the scaling factor based on 2D approximating field</title>
	<subject_fa>Radiation Biology</subject_fa>
	<subject>Radiation Biology</subject>
	<content_type_fa>تحقيق بديع</content_type_fa>
	<content_type>Original Research</content_type>
	<abstract_fa></abstract_fa>
	<abstract>
&lt;span style=&quot;font-weight: bold;&quot;&gt;Background:&lt;/span&gt; In Helical Tomotherapy (HT), the
scaling factor (SF) is the time in seconds that each
leaf viewing a target would need to be open to deliver
the prescribed dose. The SF is patient-specific and is
used to calculate the rotational period of the gantry,
and the total treatment time (TTT) of the HT. The SF is
generally difficult to estimate. Currently, it takes
about one hour to fully optimize a prostate HT plan
and to calculate the corresponding TTT. The aim of
this study is to develop a method for estimation of
the SF directly using a patient-specific approximating
function. &lt;span style=&quot;font-weight: bold;&quot;&gt;Materials and Methods:&lt;/span&gt; The SFs of ten
randomly selected patients were used to build the
approximation model. For the entire group of patients
the PTV1 ranged from 57 to 396 cm3 for PTV1 margins
from 2 to 10 mm. The discrete data for every patient
is represented by an individual function, SF=f (k×
PTV1). The values of the function were rescaled to a
special unit which represents the target volume irradiated
with the prescribed dose per second. The values
were normalized with two “geometric” parameters,
namely, the target-to-target and the body-to-body
ratios. After the normalization, the function for every
patient was ordered in the file by the volume of the
prostate and seminal vesicles. &lt;span style=&quot;font-weight: bold;&quot;&gt;Results:&lt;/span&gt; For prostate
HT planning, it was found that the planning target
volume (PTV1) has a higher impact on the SF values
than the size of the patient's bodies. The function
SF=f (k×PTV1) was found smooth and continuous over
the given interval. The rescaled and normalized
functions for all patients were represented as delimiters
of a 2D field. &lt;span style=&quot;font-weight: bold;&quot;&gt;Conclusion:&lt;/span&gt; The method proposed
for determination of the SF and TTT for HT prostate
planning covers PTV1 of four margins and a volume of
prostate and seminal vesicles ranging from 42.8 to
161 cm3. Using these approximations, the TTTs for a
second group of patients were determined in several
minutes with deviation ranging from −2.8% to +7.1%
compared to that of the TTTs calculated using the HT
planning system. Iran. J. Radiat. Res., 2010; 7 (4): 177-185</abstract>
	<keyword_fa></keyword_fa>
	<keyword>Helical tomotherapy, prostate treatment, scaling factor.</keyword>
	<start_page>177</start_page>
	<end_page>185</end_page>
	<web_url>http://www.ijrr.com/browse.php?a_code=A-10-1-335&amp;amp;slc_lang=en&amp;amp;sid=en</web_url>


<author_list>
	<author>
	<first_name>G.</first_name>
	<middle_name></middle_name>
	<last_name>Grigorov</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email>grigorovgn@yahoo.ca</email>
	<code>790031947532846001804</code>
	<coreauthor>Yes
</coreauthor>
	<affiliation>Medical Physics Department, Grand River Regional Cancer Center, Kitchener, ON, Canada</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>J.C.L.</first_name>
	<middle_name></middle_name>
	<last_name>Chow</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001903</code>
	<coreauthor>No</coreauthor>
	<affiliation>Radiation Medicine Program, Princess Margaret Hospital, Toronto, ON, Canada</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


</author_list>


	</article>
	<article>


	<language>en</language>
	<article_id_issn></article_id_issn>
	<article_id_issn_online></article_id_issn_online>
	<article_id_pubmed></article_id_pubmed>
	<article_id_pii></article_id_pii>
	<article_id_doi></article_id_doi>
	<article_id_iranmedex></article_id_iranmedex>
	<article_id_magiran></article_id_magiran>
	<article_id_sid></article_id_sid>
	<title_fa></title_fa>
	<title>Ameliorating effects of genestein: Study on mice liver glutathione and lipid peroxidation after irradiation</title>
	<subject_fa>Radiation Biology</subject_fa>
	<subject>Radiation Biology</subject>
	<content_type_fa>تحقيق بديع</content_type_fa>
	<content_type>Original Research</content_type>
	<abstract_fa></abstract_fa>
	<abstract>
&lt;span style=&quot;font-weight: bold;&quot;&gt;Background:&lt;/span&gt; Genistein is a soya isoflavone,
which is found naturally in legumes, such as
soybeans and chickpeas. Radiation–induced free
radicals in turn impair the antioxidative defense
mechanism, leading to an increased membrane lipid
peroxidation that results in damage of the membrane
bound enzyme and may lead to damage or death of
cell. Hence, the lipid peroxidation is a good biomarker
of damage occurs due to radiation and the inhibition
of lipid peroxidation is suggestive of radioprotective
action. Glutathione has been shown to protect cells
against oxidative stress by reacting with peroxides
and hydroperoxides and determines the inherent
radiosensitivity of cells. &lt;span style=&quot;font-weight: bold;&quot;&gt;Materials and Methods: &lt;/span&gt;For
experimentation, healthy Swiss Albino male mice of 6
-8 weeks old were selected from inbred colony.
Genistein was dissolved in dimethyl sulfoxide and
then prepared different concentration solutions so
that the volume administered intraperitoneally was
0.5 ml. Lipid peroxidation was estimated by the
method of Ohkawa and GSH was estimated by the
method of Moron. &lt;span style=&quot;font-weight: bold;&quot;&gt;Results:&lt;/span&gt; The intraperitoneal
administration of optimum dose (200 mg/kg body
weight) of Genistein before 24 hrs and 15 minutes of
irradiation (8 Gy at a dose rate of 1.02 Gy/min)
reverted the increase in lipid peroxidation (by 18.01%
± 3.05) and decrease of Glutathione (by 62.05% ±
21.58) caused by irradiation in liver of Swiss albino
mice. Statistically analyzed survival data produced a
dose reduction factor (DRF) = 1.24. &lt;span style=&quot;font-weight: bold;&quot;&gt;Conclusion:&lt;/span&gt; The
results indicate that Genistein against radiation effect
may pave way to the formulation of medicine in
radiotherapy for normal tissue and possible against
radiomimetic drug induced toxicity. Iran. J. Radiat.
Res., 2009; 7 (4): 187-199</abstract>
	<keyword_fa></keyword_fa>
	<keyword>Genistein, tyrosine kinase inhibitor, radiation, liver, oxidative stress.</keyword>
	<start_page>187</start_page>
	<end_page>199</end_page>
	<web_url>http://www.ijrr.com/browse.php?a_code=A-10-1-336&amp;amp;slc_lang=en&amp;amp;sid=en</web_url>


<author_list>
	<author>
	<first_name>A.</first_name>
	<middle_name></middle_name>
	<last_name>Gaur</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email>ajay_gaur11@yahoo.com</email>
	<code>790031947532846001805</code>
	<coreauthor>Yes
</coreauthor>
	<affiliation>L.B.S. College of Pharmacy, Jaipur-302004, Rajasthan, India</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


</author_list>


	</article>
	<article>


	<language>en</language>
	<article_id_issn></article_id_issn>
	<article_id_issn_online></article_id_issn_online>
	<article_id_pubmed></article_id_pubmed>
	<article_id_pii></article_id_pii>
	<article_id_doi></article_id_doi>
	<article_id_iranmedex></article_id_iranmedex>
	<article_id_magiran></article_id_magiran>
	<article_id_sid></article_id_sid>
	<title_fa></title_fa>
	<title>Individual virtual phantom reconstruction for organ dosimetry based on standard available phantoms</title>
	<subject_fa>Radiation Biology</subject_fa>
	<subject>Radiation Biology</subject>
	<content_type_fa>تحقيق بديع</content_type_fa>
	<content_type>Original Research</content_type>
	<abstract_fa></abstract_fa>
	<abstract>
&lt;span style=&quot;font-weight: bold;&quot;&gt;Background:&lt;/span&gt; In nuclear medicine application
often it is required to use computational methods for
evaluation of organ absorbed dose. Monte Carlo
simulation and phantoms have been used in many
works before. The shape, size and volume in organs
are varied, and this variation will produce error in
dose calculation if no correction is applied. &lt;span style=&quot;font-weight: bold;&quot;&gt;Materials
and Methods:&lt;/span&gt; A computational framework for
constructing individual phantom for dosimetry was
performed on five liver CT scan data sets of Japanese
normal individuals. The Zubal phantom was used as
an original phantom to be adjusted by each individual
data set. This registration was done by Spherical
Harmonics (SH) and Thin-Plate Spline methods.
Hausdorff distance was calculated for each case.
&lt;span style=&quot;font-weight: bold;&quot;&gt;Results:&lt;/span&gt; Result of Hausdorff distance for five individual
phantoms showed that before registration ranged
from 140.9 to 192.1, and after registration it
changed to 52.5 to 76.7. This was caused by index
similarity ranged from %56.4 to %70.3. &lt;span style=&quot;font-weight: bold;&quot;&gt;Conclusion:&lt;/span&gt; A
new and automatic three-dimensional (3D) phantom
construction approach was suggested for individual
internal dosimetry simulation via Spherical Harmonics
(SH) and Thin-Plate Spline methods. The results
showed that the individual comparable phantom can
be calculated with acceptable accuracy using
geometric registration. This method could be used for
race-specific statistical phantom modeling with major
application in nuclear medicine for absorbed dose
calculation. Iran. J. Radiat. Res., 2010; 7 (4): 201-206</abstract>
	<keyword_fa></keyword_fa>
	<keyword>Dosimetry, individual phantom, thin-plate spline, Monte Carlo simulation, spherical harmonics.</keyword>
	<start_page>201</start_page>
	<end_page>206</end_page>
	<web_url>http://www.ijrr.com/browse.php?a_code=A-10-1-337&amp;amp;slc_lang=en&amp;amp;sid=en</web_url>


<author_list>
	<author>
	<first_name>F.</first_name>
	<middle_name></middle_name>
	<last_name>Babapour Mofrad</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email>farshid.mofrad@yahoo.com</email>
	<code>790031947532846001806</code>
	<coreauthor>Yes
</coreauthor>
	<affiliation>Faculty of Engineering, Science and Research Branch, Islamic Azad University, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>R.</first_name>
	<middle_name></middle_name>
	<last_name>Aghaeizadeh Zoroofi</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001904</code>
	<coreauthor>No</coreauthor>
	<affiliation>Control and Intelligent Processing Center of Excellence, School of Electrical and Computer Engineering, College of Engineering, University of Tehran, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>A.</first_name>
	<middle_name></middle_name>
	<last_name>Abbaspour Tehrani Fard</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001905</code>
	<coreauthor>No</coreauthor>
	<affiliation>Electrical and Electronic Engineering School, Sharif University of Technology, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>Sh.</first_name>
	<middle_name></middle_name>
	<last_name>Akhlaghpoor</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001906</code>
	<coreauthor>No</coreauthor>
	<affiliation>Department of Interventional Radiology, Sina Hospital, Tehran University of Medical Sciences, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>Y.W.</first_name>
	<middle_name></middle_name>
	<last_name>Chen</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001907</code>
	<coreauthor>No</coreauthor>
	<affiliation>College of Information and Science, Ristumeikan University, Shiga, Japan</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>Y.</first_name>
	<middle_name></middle_name>
	<last_name>Sato</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001908</code>
	<coreauthor>No</coreauthor>
	<affiliation>Division of Image Analysis, Graduate School of Medicine, Osaka University, Osaka, Japan</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


</author_list>


	</article>
	<article>


	<language>en</language>
	<article_id_issn></article_id_issn>
	<article_id_issn_online></article_id_issn_online>
	<article_id_pubmed></article_id_pubmed>
	<article_id_pii></article_id_pii>
	<article_id_doi></article_id_doi>
	<article_id_iranmedex></article_id_iranmedex>
	<article_id_magiran></article_id_magiran>
	<article_id_sid></article_id_sid>
	<title_fa></title_fa>
	<title>Activity concentrations of natural radionuclide levels in well waters of Ago Iwoye, Nigeria</title>
	<subject_fa>Radiation Biology</subject_fa>
	<subject>Radiation Biology</subject>
	<content_type_fa>تحقيق بديع</content_type_fa>
	<content_type>Original Research</content_type>
	<abstract_fa></abstract_fa>
	<abstract>
&lt;span style=&quot;font-weight: bold;&quot;&gt;Background:&lt;/span&gt; Natural Radioactivity, though
natural requires concentration monitoring, especially
for the health/ environmental checks of the
populace. &lt;span style=&quot;font-weight: bold;&quot;&gt;Materials and Methods: &lt;/span&gt;The activity
concentrations of 40K, 238U and 232Th in the waters
from wells with depths ranging between 141.0 -
214.0 feet were randomly sampled and determined
from 20 locations in Ago-Iwoye town in South
Western, Nigeria. &lt;span style=&quot;font-weight: bold;&quot;&gt;Results:&lt;/span&gt; The activity concentrations
obtained were in the ranges of (9.9-50.9)Bq/kg with
mean value of (25.1± 10.7) Bq/kg for 40K, (BDL-15.0)
Bq/kg with mean value of (1.2 ± 3.2) Bq/kg for 238U
and (BDL-6.2) Bq/kg with mean value of (1.6 ± 1.7)
Bq/kg for 232Th. &lt;span style=&quot;font-weight: bold;&quot;&gt;Conclusion:&lt;/span&gt; According to the results
obtained for the activity concentrations from 20 well
water samples in Ago Iwoye, Southwestern, Nigeria it
was observed that the v40K, 238U and 232Th values
were still within the tolerance level indicating minimal
radiological health burden on the human populace
and the environment. Iran. J. Radiat. Res., 2010; 7 (4):
207-210</abstract>
	<keyword_fa></keyword_fa>
	<keyword>Well water, depth, locations, activity concentration, health hazard, Ago Iwoye.</keyword>
	<start_page>207</start_page>
	<end_page>210</end_page>
	<web_url>http://www.ijrr.com/browse.php?a_code=A-10-1-338&amp;amp;slc_lang=en&amp;amp;sid=en</web_url>


<author_list>
	<author>
	<first_name>O.O.</first_name>
	<middle_name></middle_name>
	<last_name>Fasunwon</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email>sfasunwon@yahoo.co.uk</email>
	<code>790031947532846001807</code>
	<coreauthor>Yes
</coreauthor>
	<affiliation>Department of Physics, Olabisi Onabanjo University, Ago Iwoye, Ogun State, Nigeria</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>S.K.</first_name>
	<middle_name></middle_name>
	<last_name>Alausa</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001909</code>
	<coreauthor>No</coreauthor>
	<affiliation>Department of Physics, Olabisi Onabanjo University, Ago Iwoye, Ogun State, Nigeria</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>R.K.</first_name>
	<middle_name></middle_name>
	<last_name>Odunaike</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001910</code>
	<coreauthor>No</coreauthor>
	<affiliation>Department of Physics, Olabisi Onabanjo University, Ago Iwoye, Ogun State, Nigeria</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>I.M.</first_name>
	<middle_name></middle_name>
	<last_name>Alausa</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001911</code>
	<coreauthor>No</coreauthor>
	<affiliation>Department of Physics, Olabisi Onabanjo University, Ago Iwoye, Ogun State, Nigeria</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>F.M.</first_name>
	<middle_name></middle_name>
	<last_name>Sosanya</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001912</code>
	<coreauthor>No</coreauthor>
	<affiliation>Department of Physics, Olabisi Onabanjo University, Ago Iwoye, Ogun State, Nigeria</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>B.A.</first_name>
	<middle_name></middle_name>
	<last_name>Ajala</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001913</code>
	<coreauthor>No</coreauthor>
	<affiliation>Department of Physics, Olabisi Onabanjo University, Ago Iwoye, Ogun State, Nigeria</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


</author_list>


	</article>
	<article>


	<language>en</language>
	<article_id_issn></article_id_issn>
	<article_id_issn_online></article_id_issn_online>
	<article_id_pubmed></article_id_pubmed>
	<article_id_pii></article_id_pii>
	<article_id_doi></article_id_doi>
	<article_id_iranmedex></article_id_iranmedex>
	<article_id_magiran></article_id_magiran>
	<article_id_sid></article_id_sid>
	<title_fa></title_fa>
	<title>Evaluation of combination effects of 2- methoxyestradiol and methoxyamine on IUdRinduced radiosensitization in glioma spheroids</title>
	<subject_fa>Radiation Biology</subject_fa>
	<subject>Radiation Biology</subject>
	<content_type_fa>تحقيق بديع</content_type_fa>
	<content_type>Original Research</content_type>
	<abstract_fa></abstract_fa>
	<abstract>
&lt;span style=&quot;font-weight: bold;&quot;&gt;Background:&lt;/span&gt; Glioblastoma is the most common
and most malignant cancer of central nervous
system. Targeted radiotherapy is an effective method
toward its treatment. Iododeoxyuridine (IUdR) is a
halogenated thymidine analogue known to be
effective as a radiosensitizer in human cancer
therapy. In this study we have evaluated the combination
effects of 2-Methoxyestradiol, an inhibitor of
hypoxia inducible factor 1α (HIF-1α) and
Methoxyaminem, an inhibitor of base excision repair
(BER) pathway on radiosensitization of IUdR in
glioblastoma spheroid culture. &lt;span style=&quot;font-weight: bold;&quot;&gt;Materials and
Methods: &lt;/span&gt;The cytotoxic damages of DNA in U87MG
cell line were compared using colony formation assay.
Experiments were performed in large spheroids with
a diameter of approximately 350μm. &lt;span style=&quot;font-weight: bold;&quot;&gt;Results:&lt;/span&gt;
Evaluation of the effects of IUdR with 2ME2 and MX
pretreatment on spheroid cultured cell followed by
ionizing irradiation showed more enhancemented
(p≤0.001) IUdR induced-radiosensitization. These
results introduced a key role for 2ME2 in IUdR related
studies. &lt;span style=&quot;font-weight: bold;&quot;&gt;Conclusion: &lt;/span&gt;Pretreatment of tumor cells with
IUdR, MX and 2ME2 before irradiation enhances
tumor radiosensitization and may improve therapeutic
index for IUdR and 2ME2. Iran. J. Radiat. Res.,
2010; 7 (4): 211-216</abstract>
	<keyword_fa></keyword_fa>
	<keyword>Hypoxia-inducible factor-1α, IUdR, radiosensitization, spheroid, methoxyamine, 2-methoxyestradiol.</keyword>
	<start_page>211</start_page>
	<end_page>216</end_page>
	<web_url>http://www.ijrr.com/browse.php?a_code=A-10-1-339&amp;amp;slc_lang=en&amp;amp;sid=en</web_url>


<author_list>
	<author>
	<first_name>A.</first_name>
	<middle_name></middle_name>
	<last_name>Neshasteh-Riz</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email>neshastehriz@yahoo.com</email>
	<code>790031947532846001808</code>
	<coreauthor>Yes
</coreauthor>
	<affiliation>Department of Radiology, Iran University of Medical Sciences, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>S.</first_name>
	<middle_name></middle_name>
	<last_name>Babaloui</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001914</code>
	<coreauthor>No</coreauthor>
	<affiliation>Department of Medical Physics, Iran University of Medical Sciences, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>S.</first_name>
	<middle_name></middle_name>
	<last_name>Khoei</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001915</code>
	<coreauthor>No</coreauthor>
	<affiliation>Department of Medical Physics, Iran University of Medical Sciences, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


</author_list>


	</article>
	<article>


	<language>en</language>
	<article_id_issn></article_id_issn>
	<article_id_issn_online></article_id_issn_online>
	<article_id_pubmed></article_id_pubmed>
	<article_id_pii></article_id_pii>
	<article_id_doi></article_id_doi>
	<article_id_iranmedex></article_id_iranmedex>
	<article_id_magiran></article_id_magiran>
	<article_id_sid></article_id_sid>
	<title_fa></title_fa>
	<title>Comparison of dosimetry parameters of two commercially available Iodine brachytherapy seeds using Monte Carlo calculations</title>
	<subject_fa>Radiation Biology</subject_fa>
	<subject>Radiation Biology</subject>
	<content_type_fa>تحقيق بديع</content_type_fa>
	<content_type>Original Research</content_type>
	<abstract_fa></abstract_fa>
	<abstract>
&lt;span style=&quot;font-weight: bold;&quot;&gt;Background:&lt;/span&gt; Iodine brachytherapy sources with
low photon energies have been widely used in
treating cancerous tumors. Dosimetric parameters of
brachytherapy sources should be determined
according to AAPM TG-43U1 recommendations
before clinical use. Monte Carlo codes are reliable
tools in calculation of these parameters for brachytherapy
sources. &lt;span style=&quot;font-weight: bold;&quot;&gt;Materials and Methods:&lt;/span&gt; Dosimetric
parameters (dose rate constant, radial dose function,
and anisotropy function) of two I-125 brachytherapy
sources (models LS-1 and Intersource) were
calculated with MCNP4C Monte Carlo code following
task group #43 (TG-43U1) recommendations of
American Assossiation of Physicists in Medicine. The
simulations were done inside a spherical water
phantom because of its tissue equivalent properties.
The Monte Carlo simulations for radial dose function
were performed at distances ranging from 0.25 to 10
cm from the source center. The anisotropy functions
F(r, θ), for both sources, were calculated at distances
of 1, 2, 3, 5 and 7 cm from the source center for
angles ranging from 15 to 90 degree. &lt;span style=&quot;font-weight: bold;&quot;&gt;Results:&lt;/span&gt; The
results of the Monte Carlo simulation indicated a
dose rate constant of 0.952 cGyh -1U-1 and 0.986
cGyh -1U-1 for models LS-1 and Intersource,
respectively. The tabulated data and fifth order
polynomial coefficients for radial dose functions
along the source are described in this paper. The
results indicated that the anisotropy in dose
distribution increased along the source axis.
&lt;span style=&quot;font-weight: bold;&quot;&gt;Conclusion: &lt;/span&gt;The obtained results were in good agreement
with measurements and calculations of other
investigators, using other Monte Carlo codes. Iran. J.
Radiat. Res., 2010; 7 (4): 217-222</abstract>
	<keyword_fa></keyword_fa>
	<keyword>Brachytherapy, radial dose function, Monte Carlo, TG-43.</keyword>
	<start_page>217</start_page>
	<end_page>222</end_page>
	<web_url>http://www.ijrr.com/browse.php?a_code=A-10-1-340&amp;amp;slc_lang=en&amp;amp;sid=en</web_url>


<author_list>
	<author>
	<first_name>M.</first_name>
	<middle_name></middle_name>
	<last_name>Zehtabian</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email>mehdizehtabian@yahoo.com</email>
	<code>790031947532846001809</code>
	<coreauthor>Yes
</coreauthor>
	<affiliation>Radiation Research Center and Radiation Medicine Department, School of Engineering, Shiraz University, Shiraz, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>R.</first_name>
	<middle_name></middle_name>
	<last_name>Faghihi</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001916</code>
	<coreauthor>No</coreauthor>
	<affiliation>Radiation Research Center and Radiation Medicine Department, School of Engineering, Shiraz University, Shiraz, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>S.</first_name>
	<middle_name></middle_name>
	<last_name>Sina</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001917</code>
	<coreauthor>No</coreauthor>
	<affiliation>Radiation Research Center and Radiation Medicine Department, School of Engineering, Shiraz University, Shiraz, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


</author_list>


	</article>
	<article>


	<language>en</language>
	<article_id_issn></article_id_issn>
	<article_id_issn_online></article_id_issn_online>
	<article_id_pubmed></article_id_pubmed>
	<article_id_pii></article_id_pii>
	<article_id_doi></article_id_doi>
	<article_id_iranmedex></article_id_iranmedex>
	<article_id_magiran></article_id_magiran>
	<article_id_sid></article_id_sid>
	<title_fa></title_fa>
	<title>A Monte Carlo simulation and dosimetric verification of physical wedges used in radiation therapy</title>
	<subject_fa>فیزیک پزشکی</subject_fa>
	<subject>Medical physics</subject>
	<content_type_fa>تحقيق بديع</content_type_fa>
	<content_type>Original Research</content_type>
	<abstract_fa></abstract_fa>
	<abstract>
&lt;span style=&quot;font-weight: bold;&quot;&gt;Background:&lt;/span&gt; The presence of a wedge filter in
the beam trajectory can modify the beam quality and
cause some changes in the dosimetry parameters
which are usually difficult to be measured directly and
accurately. &lt;span style=&quot;font-weight: bold;&quot;&gt;Material and Methods: &lt;/span&gt;In this study the
MCNP-4C Monte Carlo code was used to simulate the
9 MV photon beam generated by a linear accelerator.
Upon getting a good agreement between the Monte
Carlo simulated and measured dose distribution in
open fields, the model was used to simulate the
physical wedges. The steel wedges with angles from
15º-60º were modeled and the primary and the
secondary photon beams were calculated. The beam
profiles and wedges factors were calculated for each
wedge. The output factors were determined for 45 wedge. The calculated data were compared with the
measured values of the same parameters. &lt;span style=&quot;font-weight: bold;&quot;&gt;Results:&lt;/span&gt;
The results showed that the use of wedges reduced
the fluencies of the primary and scattered photons
and also increased the average energy of the primary
and the scattered photons. The agreement between
the calculated and the measured data was better
than 2% for all wedges. The results also showed that
as the wedge angle increased, the electron contamination
of photon beam decreased. &lt;span style=&quot;font-weight: bold;&quot;&gt;Conclusion: &lt;/span&gt;The
presence of a wedge in a 9 MV photon beam alters
the primary and the scattered components generated
by a linear accelerator. The simulated linac machine
and its associated data can be used to predict the
dose distribution in other complex fields. Iran. J.
Radiat. Res., 2010; 7 (4): 223-227</abstract>
	<keyword_fa></keyword_fa>
	<keyword>Monte Carlo, photon spectra, physical wedge, MCNP4c code, simulation.</keyword>
	<start_page>223</start_page>
	<end_page>227</end_page>
	<web_url>http://www.ijrr.com/browse.php?a_code=A-10-1-341&amp;amp;slc_lang=en&amp;amp;sid=en</web_url>


<author_list>
	<author>
	<first_name>M.</first_name>
	<middle_name></middle_name>
	<last_name>Momennezhad</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001810</code>
	<coreauthor>No</coreauthor>
	<affiliation>Nuclear Medicine Research Center, Emam Reza Hospital, Mashhad University of Medical Sciences, Mashhad, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>M.T.</first_name>
	<middle_name></middle_name>
	<last_name>Bahreyni Toosi</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001918</code>
	<coreauthor>No</coreauthor>
	<affiliation>Medical Physics Research Center, Mashhad University of Medical Sciences, Mashhad, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>R.</first_name>
	<middle_name></middle_name>
	<last_name>Sadeghi</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001919</code>
	<coreauthor>No</coreauthor>
	<affiliation>Nuclear Medicine Research Center, Emam Reza Hospital, Mashhad University of Medical Sciences, Mashhad, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>H.</first_name>
	<middle_name></middle_name>
	<last_name>Gholamhoseinian</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001920</code>
	<coreauthor>No</coreauthor>
	<affiliation>Department of Medical Physics, Medical School, Mashhad University of Medical Sciences, Mashhad, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>Sh.</first_name>
	<middle_name></middle_name>
	<last_name>Nasseri</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email>NaseriSh801@mums.ac.ir</email>
	<code>790031947532846001921</code>
	<coreauthor>Yes
</coreauthor>
	<affiliation>Department of Medical Physics, Medical School, Mashhad University of Medical Sciences, Mashhad, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


</author_list>


	</article>
	<article>


	<language>en</language>
	<article_id_issn></article_id_issn>
	<article_id_issn_online></article_id_issn_online>
	<article_id_pubmed></article_id_pubmed>
	<article_id_pii></article_id_pii>
	<article_id_doi></article_id_doi>
	<article_id_iranmedex></article_id_iranmedex>
	<article_id_magiran></article_id_magiran>
	<article_id_sid></article_id_sid>
	<title_fa></title_fa>
	<title>Production of 177Lu and formulation of Ethylene diamine tetramethylene phosphonate (EDTMP) kits as a bone-seeking radiopharmaceutical</title>
	<subject_fa>Radiation Biology</subject_fa>
	<subject>Radiation Biology</subject>
	<content_type_fa>تحقيق بديع</content_type_fa>
	<content_type>Original Research</content_type>
	<abstract_fa></abstract_fa>
	<abstract>
&lt;span style=&quot;font-weight: bold;&quot;&gt;Background:&lt;/span&gt; Owing to its favourable decay
characteristics 177Lu [T1/2= 6.71 d, Eβ(max)= 497
keV] is an attractive radionuclide for various
therapeutic applications. Ethylene diamine tatramethylene
phosphonate (EDTMP) is one of the most
widely used ligands which form stable complexes with
various radionuclides and all the complexes.
&lt;span style=&quot;font-weight: bold;&quot;&gt;Materials and Methods:&lt;/span&gt; Enriched 176Lu2O3 was
dissolved in 0.1 N HCl and evaporated several times
and 176LuCl3 target was irradiated at 2.6×1013 n.Cm-
2.S-1 thermal neutron flux for 14 days.177LuCl3 was
dissolved in 1N HCl. EDTMP was dissolved in double
distilled water at pH=7.5-8.5 and freeze-dried kits
was radiolabeled with 177LuCl3. Distribution studies
were done in healthy mice. &lt;span style=&quot;font-weight: bold;&quot;&gt;Results: &lt;/span&gt;The yield of 177Lu
was (~220 TBq/g; 6000 Ci/g), the radionuclidic purity
was ~99%.The radiolabeling yield of EDTMP kits at
37°C after 30 min and 4 hours was 98±0.5% and
after 72 hours was 90±2.1%, the in vitro stability in
human serum at 37°C up to 72 hours post radiolabeling
was 85±1.8%.The biodistribution studies of
177Lu-EDTMP and 177LuCl3 in normal mice showed
skeleton uptake and low soft-tissue concentration.
&lt;span style=&quot;font-weight: bold;&quot;&gt;Conclusion:&lt;/span&gt; In this study, we produce ~220 TBq/g
(6000 Ci/g) of 177Lu by neutron activation of 176Lu in
the Tehran Research Reactor. Our results showed
177Lu-EDTMP as a bone-seeking radiopharmaceutical.
Due to its suitable nuclear characteristics 177Lu
appears to be worthwhile for palliative therapy of
bone metastasis. Iran. J. Radiat. Res., 2010; 7 (4): 229-234</abstract>
	<keyword_fa></keyword_fa>
	<keyword>DTMP, Bone-seeking radiopharmaceuticals, 177Lu.</keyword>
	<start_page>229</start_page>
	<end_page>234</end_page>
	<web_url>http://www.ijrr.com/browse.php?a_code=A-10-1-342&amp;amp;slc_lang=en&amp;amp;sid=en</web_url>


<author_list>
	<author>
	<first_name>F.</first_name>
	<middle_name></middle_name>
	<last_name>Johari Daha</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001811</code>
	<coreauthor>No</coreauthor>
	<affiliation>Radioisotope Department, Nuclear Science Research School, Nuclear Science and Technology Research Institute, Atomic Energy Organization of Iran, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>S.</first_name>
	<middle_name></middle_name>
	<last_name>Shafiei</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001922</code>
	<coreauthor>No</coreauthor>
	<affiliation>Radioisotope Department, Nuclear Science Research School, Nuclear Science and Technology Research Institute, Atomic Energy Organization of Iran, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>Sh.</first_name>
	<middle_name></middle_name>
	<last_name>Sheibani</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001923</code>
	<coreauthor>No</coreauthor>
	<affiliation>Radioisotope Department, Nuclear Science Research School, Nuclear Science and Technology Research Institute, Atomic Energy Organization of Iran, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>Y.H.</first_name>
	<middle_name></middle_name>
	<last_name>Tavakoli</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001924</code>
	<coreauthor>No</coreauthor>
	<affiliation>Radioisotope Department, Nuclear Science Research School, Nuclear Science and Technology Research Institute, Atomic Energy Organization of Iran, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>M.</first_name>
	<middle_name></middle_name>
	<last_name>Mazidi</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001925</code>
	<coreauthor>No</coreauthor>
	<affiliation>Radioisotope Department, Nuclear Science Research School, Nuclear Science and Technology Research Institute, Atomic Energy Organization of Iran, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>M.H.</first_name>
	<middle_name></middle_name>
	<last_name>Mirfalah</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email></email>
	<code>790031947532846001926</code>
	<coreauthor>No</coreauthor>
	<affiliation>Radioisotope Department, Nuclear Science Research School, Nuclear Science and Technology Research Institute, Atomic Energy Organization of Iran, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


	<author>
	<first_name>M.H.</first_name>
	<middle_name></middle_name>
	<last_name>Babaei</last_name>
	<suffix></suffix>
	<first_name_fa></first_name_fa>
	<middle_name_fa></middle_name_fa>
	<last_name_fa></last_name_fa>
	<suffix_fa></suffix_fa>
	<email>mbabaei@aeoi.org.ir</email>
	<code>790031947532846001927</code>
	<coreauthor>Yes
</coreauthor>
	<affiliation>Radioisotope Department, Nuclear Science Research School, Nuclear Science and Technology Research Institute, Atomic Energy Organization of Iran, Tehran, Iran</affiliation>
	<affiliation_fa></affiliation_fa>
	 </author>


</author_list>


	</article>
</articleset>
</journal>
