
	<OAI-PMH xmlns="http://www.openarchives.org/OAI/2.0/" xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"	xmlns:cr_unixml="http://www.crossref.org/xschema/1.0" xsi:schemaLocation="http://www.openarchives.org/OAI/2.0/ http://www.openarchives.org/OAI/2.0/OAI-PMH.xsd">
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				<record>
					<header>
						<identifier>43-141</identifier>
						<datestamp>2026-09-06</datestamp>
						<setSpec>10.1002</setSpec>
					</header>
					<metadata>
						<cr_unixml:crossref xmlns="http://www.crossref.org/xschema/1.0"
							xsi:schemaLocation="http://www.crossref.org/xschema/1.0 http://www.crossref.org/schema/unixref1.0.xsd">
							<journal>
								<journal_metadata language="en">
									<full_title>International Journal of Civil Engineering</full_title>
									<abbrev_title>IJCE</abbrev_title>
									<issn media_type="print">1735-0522</issn>
									<issn media_type="electronic">2283-3874</issn>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_metadata>
								<journal_issue>
									<publication_date media_type="print">
										<year>2004</year>
									</publication_date>
									<journal_volume>
										<volume>2</volume>
									</journal_volume>
									<issue>2</issue>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_issue>
								<journal_article publication_type="full_text">
									<titles>
										<title>SENSITIVITY ANALYSIS OF STRATEGIC INDICATORS IN PRICING MODEL FOR INTERCITY PASSENGER SERVICE</title>
									</titles>

				<contributors>
				
				<person_name contributor_role="author" sequence="1">
					<given_name></given_name>
					<surname>AFANDI ZADEH SH.</surname>
					<email></email>
				</person_name>
					
				<person_name contributor_role="author" sequence="2">
					<given_name></given_name>
					<surname>ZOGHI H.</surname>
					<email></email>
				</person_name>
				
				</contributors>
			
			<abstract>
			Since Road transportation accounts for a large portion of total displaced passengers of Different types it is the most important mode of passenger services in Iran.The costs considered are depreciation, investment, insurance, tax, fuel, tires, main repairs, unexpected repairs, oil filter break shoe. Lubrication, batteries, commission, wages and other miscellaneous costs.These are classified into two categories of fixed and variable costs that it-ere analyzed. The data used is obtained, from the Iranian passenger transportation co- operatives based on their real costs in Fear 2002 .The methodology of determination rate of return and Passenger Transportation Price are described and these parameters are calculated. In this paper, a price model based on the economic techniques and sensitlvtfx. Analysis is presented for operators and managers.Pricing model of passenger service is prepared by the authors by the name of Development of Pricing Model of passenger Services in Intercity Roads . This research is pointing to Model Sensivity Analysis Dependent on Various Indicators.
			</abstract>
				<keywords>
	</keywords>

							  <publication_date media_type="print">
								  <year>2004</year>
								  <month>6</month>
								  <day>01</day>
							  </publication_date>
							  <pages>
								  <first_page>55</first_page>
								  <last_page>64</last_page>
							  </pages>
								  <fullTextUrl></fullTextUrl>
							  <doi_data>
								  <doi></doi>
								  <resource></resource>
							  </doi_data>
							  <citation_list>
							  </citation_list>
						  </journal_article>
					  </journal>
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			  </metadata>
			</record>
				
			
				<record>
					<header>
						<identifier>43-12</identifier>
						<datestamp>2026-09-06</datestamp>
						<setSpec>10.1002</setSpec>
					</header>
					<metadata>
						<cr_unixml:crossref xmlns="http://www.crossref.org/xschema/1.0"
							xsi:schemaLocation="http://www.crossref.org/xschema/1.0 http://www.crossref.org/schema/unixref1.0.xsd">
							<journal>
								<journal_metadata language="en">
									<full_title>International Journal of Civil Engineering</full_title>
									<abbrev_title>IJCE</abbrev_title>
									<issn media_type="print">1735-0522</issn>
									<issn media_type="electronic">2283-3874</issn>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_metadata>
								<journal_issue>
									<publication_date media_type="print">
										<year>2004</year>
									</publication_date>
									<journal_volume>
										<volume>2</volume>
									</journal_volume>
									<issue>2</issue>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_issue>
								<journal_article publication_type="full_text">
									<titles>
										<title>THE DEVELOPMENT OF THE COMPOSED PROBABILITY MODEL TO ESTIMATE THE RATE OF HOUSEHOLD TRIP PRODUCTION (CASE STUDY OF KARAJ CITY)</title>
									</titles>

				<contributors>
				
				<person_name contributor_role="author" sequence="1">
					<given_name></given_name>
					<surname>KHAKI A.M.</surname>
					<email></email>
				</person_name>
					
				<person_name contributor_role="author" sequence="2">
					<given_name></given_name>
					<surname>MOAYEDFAR R.</surname>
					<email></email>
				</person_name>
				
				</contributors>
			
			<abstract>
			The purpose of the present study, is proposing a more flexible model comparing with linear regression model, to estimate the rate of household trip production and its prediction in the�project horizon. For this purpose, a combined model composed of poission distribution and the possible distribution of A. in the form of negative binominal distribution are used. Then the proposed model was conducted on a real case (Karaj City). Then the result of model processinghas been compared to .the real observation in the peak hours in Karaj city.
			</abstract>
				<keywords>
	<keyword>Trip household� production</keyword>
	<keyword>Linear regression distribution</keyword>
	<keyword>Peak �hour</keyword>
	<keyword>Polssion distribution</keyword>
	<keyword>Negative binomial distribution</keyword>
	<keyword>Socio</keyword>
	<keyword>Economic characteristics</keyword>
	<keyword>Auto ownership</keyword>
	<keyword>Household size</keyword>
	<keyword>Household income</keyword>
	</keywords>

							  <publication_date media_type="print">
								  <year>2004</year>
								  <month>6</month>
								  <day>01</day>
							  </publication_date>
							  <pages>
								  <first_page>72</first_page>
								  <last_page>77</last_page>
							  </pages>
								  <fullTextUrl></fullTextUrl>
							  <doi_data>
								  <doi></doi>
								  <resource></resource>
							  </doi_data>
							  <citation_list>
							  </citation_list>
						  </journal_article>
					  </journal>
				  </cr_unixml:crossref>
			  </metadata>
			</record>
				
			
				<record>
					<header>
						<identifier>43-13</identifier>
						<datestamp>2026-09-06</datestamp>
						<setSpec>10.1002</setSpec>
					</header>
					<metadata>
						<cr_unixml:crossref xmlns="http://www.crossref.org/xschema/1.0"
							xsi:schemaLocation="http://www.crossref.org/xschema/1.0 http://www.crossref.org/schema/unixref1.0.xsd">
							<journal>
								<journal_metadata language="en">
									<full_title>International Journal of Civil Engineering</full_title>
									<abbrev_title>IJCE</abbrev_title>
									<issn media_type="print">1735-0522</issn>
									<issn media_type="electronic">2283-3874</issn>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_metadata>
								<journal_issue>
									<publication_date media_type="print">
										<year>2004</year>
									</publication_date>
									<journal_volume>
										<volume>2</volume>
									</journal_volume>
									<issue>2</issue>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_issue>
								<journal_article publication_type="full_text">
									<titles>
										<title>FINITE VOLUME SOLUTION OF TWO-DIMENSIONAL CONVECTION DOMINATED SUB-CRITICAL FREE SURFACE FLOW USING UNSTRUCTURED TRIANGULAR MESHES</title>
									</titles>

				<contributors>
				
				<person_name contributor_role="author" sequence="1">
					<given_name></given_name>
					<surname>SABAGH YAZDI S.R.</surname>
					<email></email>
				</person_name>
					
				<person_name contributor_role="author" sequence="2">
					<given_name></given_name>
					<surname>MOHAMMAD ZADEH QOMI M.</surname>
					<email></email>
				</person_name>
				
				</contributors>
			
			<abstract>
			A numerical model is introduced for solution of shallow water flow equations with negligible physical dissipations due to canal roughness and turbulence effects. Two-dimensional velocity distribution and water depth of the flow field are computed by solving the depth average equations of continuity and motion. The equations are converted to discrete form using cell vertexfinite volume method on triangular unstructured mesh. The formulation of the added numericalviscosity is chosen in such a way that preserves the accuracy of numerical results. The accuracy ofthe model is assessed by computing the challenging case of inviscid frictionless flow in a canal with a 1800 bend. The computed results are compared with analytical solution which is obtainedfrom potential flow theory. Simulation of frictionless free surface flow in a constant width meandering sinusoidal canal is considered as an application of the model. The algorithm produced encouraging results.
			</abstract>
				<keywords>
	<keyword>Numerical simulation</keyword>
	<keyword>Frictionless Shallow Flow</keyword>
	<keyword>Artificial Viscosity</keyword>
	<keyword>Unstructured Mesh</keyword>
	</keywords>

							  <publication_date media_type="print">
								  <year>2004</year>
								  <month>6</month>
								  <day>01</day>
							  </publication_date>
							  <pages>
								  <first_page>78</first_page>
								  <last_page>91</last_page>
							  </pages>
								  <fullTextUrl></fullTextUrl>
							  <doi_data>
								  <doi></doi>
								  <resource></resource>
							  </doi_data>
							  <citation_list>
							  </citation_list>
						  </journal_article>
					  </journal>
				  </cr_unixml:crossref>
			  </metadata>
			</record>
				
			
				<record>
					<header>
						<identifier>43-14</identifier>
						<datestamp>2026-09-06</datestamp>
						<setSpec>10.1002</setSpec>
					</header>
					<metadata>
						<cr_unixml:crossref xmlns="http://www.crossref.org/xschema/1.0"
							xsi:schemaLocation="http://www.crossref.org/xschema/1.0 http://www.crossref.org/schema/unixref1.0.xsd">
							<journal>
								<journal_metadata language="en">
									<full_title>International Journal of Civil Engineering</full_title>
									<abbrev_title>IJCE</abbrev_title>
									<issn media_type="print">1735-0522</issn>
									<issn media_type="electronic">2283-3874</issn>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_metadata>
								<journal_issue>
									<publication_date media_type="print">
										<year>2004</year>
									</publication_date>
									<journal_volume>
										<volume>2</volume>
									</journal_volume>
									<issue>2</issue>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_issue>
								<journal_article publication_type="full_text">
									<titles>
										<title>LAND USE-NOISE POLLUTION COMPATIBILITY MODEL FOR MEHRABAD INTERNATIONAL AIRPORT</title>
									</titles>

				<contributors>
				
				<person_name contributor_role="author" sequence="1">
					<given_name></given_name>
					<surname>SAFFAR ZADEH M.</surname>
					<email></email>
				</person_name>
					
				<person_name contributor_role="author" sequence="2">
					<given_name></given_name>
					<surname>ASADI M.B.</surname>
					<email></email>
				</person_name>
				
				</contributors>
			
			<abstract>
			In this research, the Integrated Noise Model (INM), has been calibrated to perform the noise pollution evaluation in the vicinity of Mehrabad International Airport (MIA). First a conceptual model was developed to analyze the compatibility of airport noise with the land use based on the most widely accepted noise pollution standards. Second, the data generated from the INM package was compared with real data acquired from the test stations positioned around airport. Finally, the outputs of the calibrated model was compared with the noise pollution standards. The results show that more than 70 percent of the land use in the vicinity of airport are not compatible with the accepted noise levels. The generated noise contours was superimposed on the digital map of the city and the areas which violated the permitted levels was recognized. Moreover, the more noise sensitive facilities such as hospitals, schools, and residential units can be positioned in areas which have the permitted noise levels. The model and the procedure can be used to design new airports. Noise evaluation of existing operational airports can be performed by the model developed in this research.
			</abstract>
				<keywords>
	<keyword>Noise</keyword>
	<keyword>Land</keyword>
	<keyword>use</keyword>
	<keyword>Airport</keyword>
	<keyword>Compatibility</keyword>
	</keywords>

							  <publication_date media_type="print">
								  <year>2004</year>
								  <month>6</month>
								  <day>01</day>
							  </publication_date>
							  <pages>
								  <first_page>92</first_page>
								  <last_page>99</last_page>
							  </pages>
								  <fullTextUrl></fullTextUrl>
							  <doi_data>
								  <doi></doi>
								  <resource></resource>
							  </doi_data>
							  <citation_list>
							  </citation_list>
						  </journal_article>
					  </journal>
				  </cr_unixml:crossref>
			  </metadata>
			</record>
				
			
				<record>
					<header>
						<identifier>43-15</identifier>
						<datestamp>2026-09-06</datestamp>
						<setSpec>10.1002</setSpec>
					</header>
					<metadata>
						<cr_unixml:crossref xmlns="http://www.crossref.org/xschema/1.0"
							xsi:schemaLocation="http://www.crossref.org/xschema/1.0 http://www.crossref.org/schema/unixref1.0.xsd">
							<journal>
								<journal_metadata language="en">
									<full_title>International Journal of Civil Engineering</full_title>
									<abbrev_title>IJCE</abbrev_title>
									<issn media_type="print">1735-0522</issn>
									<issn media_type="electronic">2283-3874</issn>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_metadata>
								<journal_issue>
									<publication_date media_type="print">
										<year>2004</year>
									</publication_date>
									<journal_volume>
										<volume>2</volume>
									</journal_volume>
									<issue>2</issue>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_issue>
								<journal_article publication_type="full_text">
									<titles>
										<title>THE COMPARISON OF ANALYTICAL APPROACHES AND ROAD CRASH COSTS IN IRAN AND AUSTRALIA</title>
									</titles>

				<contributors>
				
				<person_name contributor_role="author" sequence="1">
					<given_name></given_name>
					<surname>AYATI E.</surname>
					<email></email>
				</person_name>
				
				</contributors>
			
			<abstract>
			Government agencies and the medical, insurance and automotive industries all have an interest in understanding the socio-economic costs of road crashes. These costs are estimated in most countries, and their computation methodology are continuously progressing as more refined costing methods, are used. This paper outlines two recent studies in Iran and Australia in order to compare crash cost estimation approaches. The analytical approaches and the results of similar studies in some other countries are also discussed It is shown that different approaches to estimating human costs and its components have considerable effects on the results. In both studies, the contribution to the total costs are human costs (50 to 60 percent), vehicle costs (30 percent) with the remaining 10 to 20 percent covering general costs.
			</abstract>
				<keywords>
	<keyword>Australia</keyword>
	<keyword>Cost</keyword>
	<keyword>Crash</keyword>
	<keyword>Human Capital</keyword>
	<keyword>Iran</keyword>
	<keyword>Road</keyword>
	<keyword>Willingness to pay</keyword>
	</keywords>

							  <publication_date media_type="print">
								  <year>2004</year>
								  <month>6</month>
								  <day>01</day>
							  </publication_date>
							  <pages>
								  <first_page>100</first_page>
								  <last_page>111</last_page>
							  </pages>
								  <fullTextUrl></fullTextUrl>
							  <doi_data>
								  <doi></doi>
								  <resource></resource>
							  </doi_data>
							  <citation_list>
							  </citation_list>
						  </journal_article>
					  </journal>
				  </cr_unixml:crossref>
			  </metadata>
			</record>
				
			
				<record>
					<header>
						<identifier>43-16</identifier>
						<datestamp>2026-09-06</datestamp>
						<setSpec>10.1002</setSpec>
					</header>
					<metadata>
						<cr_unixml:crossref xmlns="http://www.crossref.org/xschema/1.0"
							xsi:schemaLocation="http://www.crossref.org/xschema/1.0 http://www.crossref.org/schema/unixref1.0.xsd">
							<journal>
								<journal_metadata language="en">
									<full_title>International Journal of Civil Engineering</full_title>
									<abbrev_title>IJCE</abbrev_title>
									<issn media_type="print">1735-0522</issn>
									<issn media_type="electronic">2283-3874</issn>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_metadata>
								<journal_issue>
									<publication_date media_type="print">
										<year>2004</year>
									</publication_date>
									<journal_volume>
										<volume>2</volume>
									</journal_volume>
									<issue>2</issue>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_issue>
								<journal_article publication_type="full_text">
									<titles>
										<title>THEORETICAL AND EXPERIMENTAL DAMAGE DETECTION METHOD OF STRUCTURES USING STATIC DISPLACEMENTS</title>
									</titles>

				<contributors>
				
				<person_name contributor_role="author" sequence="1">
					<given_name></given_name>
					<surname>BAKHTIARI NEJAD F.</surname>
					<email></email>
				</person_name>
					
				<person_name contributor_role="author" sequence="2">
					<given_name></given_name>
					<surname>RAHAI A.</surname>
					<email></email>
				</person_name>
					
				<person_name contributor_role="author" sequence="3">
					<given_name></given_name>
					<surname>ESFANDIARI A.</surname>
					<email></email>
				</person_name>
				
				</contributors>
			
			<abstract>
			In this paper a structural damage detection algorithm using static test data is presented. Damage is considered as a reduction in the structural stiffness (Axial and/or Flexural) parameters. Change in the static displacement of a structure is characterized as a set of non-linear undetermined simultaneous equations that relates the changes in static response of the structure to the location and severity of damage. An optimality criterion is introduced to solve these equations by minimizing the difference between the load vector of damaged and undamaged structures. The overall formulation leads to a non-linear optimization problem with non-linear equality and linear inequality constraints. A method based on stored strain energy in elements is presented to select the loading location. Measurement locations are selected based on Fisher Information Matrix. Numerical and experimental results of a 2D frame represent good ability of this method in detecting damages in a given structure with presence of noise in measurements.
			</abstract>
				<keywords>
	<keyword>Damage</keyword>
	<keyword>Static</keyword>
	<keyword>Strain Energy</keyword>
	<keyword>Optimization</keyword>
	</keywords>

							  <publication_date media_type="print">
								  <year>2004</year>
								  <month>6</month>
								  <day>01</day>
							  </publication_date>
							  <pages>
								  <first_page>112</first_page>
								  <last_page>122</last_page>
							  </pages>
								  <fullTextUrl></fullTextUrl>
							  <doi_data>
								  <doi></doi>
								  <resource></resource>
							  </doi_data>
							  <citation_list>
							  </citation_list>
						  </journal_article>
					  </journal>
				  </cr_unixml:crossref>
			  </metadata>
			</record>
				
			
				<record>
					<header>
						<identifier>43-17</identifier>
						<datestamp>2026-09-06</datestamp>
						<setSpec>10.1002</setSpec>
					</header>
					<metadata>
						<cr_unixml:crossref xmlns="http://www.crossref.org/xschema/1.0"
							xsi:schemaLocation="http://www.crossref.org/xschema/1.0 http://www.crossref.org/schema/unixref1.0.xsd">
							<journal>
								<journal_metadata language="en">
									<full_title>International Journal of Civil Engineering</full_title>
									<abbrev_title>IJCE</abbrev_title>
									<issn media_type="print">1735-0522</issn>
									<issn media_type="electronic">2283-3874</issn>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_metadata>
								<journal_issue>
									<publication_date media_type="print">
										<year>2004</year>
									</publication_date>
									<journal_volume>
										<volume>2</volume>
									</journal_volume>
									<issue>2</issue>
									<doi_data>
										<doi></doi>
										<resource></resource>
									</doi_data>
								</journal_issue>
								<journal_article publication_type="full_text">
									<titles>
										<title>SIMPLIFIED BNWF MODEL FOR NONLINEAR SEISMIC RESPONSE ANALYSIS OF OFFSHORE PILES WITH LINEAR INPUT GROUND MOTION ANALYSIS</title>
									</titles>

				<contributors>
				
				<person_name contributor_role="author" sequence="1">
					<given_name></given_name>
					<surname>KIMIAEI M.</surname>
					<email></email>
				</person_name>
					
				<person_name contributor_role="author" sequence="2">
					<given_name></given_name>
					<surname>SHAYANFAR M.A.</surname>
					<email></email>
				</person_name>
					
				<person_name contributor_role="author" sequence="3">
					<given_name></given_name>
					<surname>HESHAM EI NAGGAR M.</surname>
					<email></email>
				</person_name>
					
				<person_name contributor_role="author" sequence="4">
					<given_name></given_name>
					<surname>AGHA KOUCHAK A.A.</surname>
					<email></email>
				</person_name>
				
				</contributors>
			
			<abstract>
			The seismic response of pile-supported offshore structures is strongly affected by the nonlinear behavior of the supporting piles. Nonlinear response of piles is the most important source of potentially nonlinear dynamic response of offshore platforms due to earthquake excitations. It is often necessary to perform dynamic analysis of offshore platforms that accountsfor soil nonlinearity, discontinuity condition at pile soil interfaces, energy dissipation through soil radiation damping and structural non linear behaviors of piles.In this paper, an attempt is made to develop an inexpensive and practical procedure compatible with readily available structural analysis software for estimating the lateral response of flexible piles embedded in layered soil deposits subjected to seismic loading. In the proposed model a BNWF (Beam on Nonlinear Winkler Foundation) approach is used consisting of simple nonlinear springs, dash pots and contact elements. Gapping and caving-in conditions at the pile-soil interfaces are also considered using special interface elements. This model was incorporated into a Finite Element program (ANSYS), which was used to compute the response of laterally excited piles. A linear approach was used for seismic free field ground motion analysis. The computed responses compared well with the Centrifuge test results.This paper deals with the effects of free field ground motion analysis on seismic non linear behavior of embedded piles. Different parts of a BNWF (Beam on Nonlinear Winkler Foundation) model, together with quantitative and qualitative findings and conclusions for dynamic nonlinear response of offshore piles, are discussed and addressed in detail. The proposed BNWF model (only using the existing features of the available general finite element software) could easily be implemented in a more comprehensive model of nonlinear seismic response analysis of pile supported offshore platforms.
			</abstract>
				<keywords>
	<keyword>Seismic</keyword>
	<keyword>Nonlinear</keyword>
	<keyword>BNWF</keyword>
	<keyword>Offshore</keyword>
	<keyword>Piles</keyword>
	</keywords>

							  <publication_date media_type="print">
								  <year>2004</year>
								  <month>6</month>
								  <day>01</day>
							  </publication_date>
							  <pages>
								  <first_page>123</first_page>
								  <last_page>137</last_page>
							  </pages>
								  <fullTextUrl></fullTextUrl>
							  <doi_data>
								  <doi></doi>
								  <resource></resource>
							  </doi_data>
							  <citation_list>
							  </citation_list>
						  </journal_article>
					  </journal>
				  </cr_unixml:crossref>
			  </metadata>
			</record>
			
		</ListRecords>
		</OAI-PMH>
		 
  
  
  
  
 