PSI - Issue 84
Marco Bonopera et al. / Procedia Structural Integrity 84 (2026) 457–464
464
Bonopera, M., Chang, K.C., Chen, C.C., Sung, Y.C., Tullini, N., 2018. Feasibility Study of Prestress Force Prediction for Concrete Beams using Second–Order Deflections. International Journal of Structural Stability and Dynamics 18 (10), 1–19. Bonopera, M., Chang, K.C., Chen, C.C., Sung, Y.C., Tullini, N., 2019. Experimental Study on the Fundamental Frequency of Prestressed Concrete Bridge Beams with Parabolic Unbonded Tendons. Journal of Sound and Vibration 455, 150–160. Bonopera, M., Chang, K.C., Lin, T.K., Tullini, N., 2021. Influence of Prestressing on the Behavior of Uncracked Concrete Beams with a Parabolic Bonded Tendon. Structural Engineering and Mechanics 77 (1), 1–17. Bonopera, M., Chang, K.C., Tullini, N., 2023. Vibration of Prestressed Beams: Experimental and Finite-Element Analysis of Post–Tensioned Thin Walled Box-Girders. Journal of Constructional Steel Research 205, 107854. Bonopera, M., De Matteis, G., 2026. Analysis of the Shear Deformation in Simply Supported Prestressed Concrete Girder-Bridges. Procedia Structural Integrity. Bonopera, M., Liao, W.C., Perceka, W., 2022. Experimental–Theoretical Investigation of the Short-Term Vibration Response of Uncracked Prestressed Concrete Members under Long-Age Conditions. Structures 35, 260–273. Botte, W., Vereecken, E., Taerwe, L., Caspeele, R., 2021. Assessment of Posttensioned Concrete Beams from the 1940s: Large-Scale Load Testing, Numerical Analysis and Bayesian Assessment of Prestressing Losses. Structural Concrete 22 (3), 1500–1522. Consiglio, A.N., Bonopera, M., Muciaccia, G., Rosati, G., De Matteis, G., 2026. Comparison between a Destructive and a Non-destructive Method for Evaluating Residual Prestressing in Concrete Beams. Procedia Structural Integrity. De Angelis, A., Losanno, D., Parisi, F., Pecce, M.R., 2024. Identification of Modal Parameters of Scaled Bridge PC Beams by OMA Dynamic Tests. Journal of Bridge Engineering 29 (8), 1–17, 04024051. Gan, B.Z., Chiew, S.P., Lu, Y., Fung, T.C., 2019. The Effect of Prestressing Force on Natural Frequencies of Concrete Beams -A Numerical Validation of Existing Experiments by Modelling Shrinkage Crack Closure. Journal of Sound and Vibration 455, 20–31. Gandelli, E., Rossini, G., Mantelli, S.G., Minelli, F., 2024. Damage Detection of Prestressed Concrete Beams Affected by Shear and Flexure Cracks through Vibration Monitoring. Engineering Structures 304, 117572. Hamed, E., Frostig, Y., 2006. Natural Frequencies of Bonded and Unbonded Pre–stressed Beams Pre–stress Force Effects. Journal of Sound and Vibration 295 (1–2), 28–39. Huber, P., Vill, M., Schweighofer, A., Kollegger, J., 2018. Full-Scale Shear Tests on Post-Tensioned Bridge Girders of Existing Bridges. Structural Concrete 19 (1), 5–15. Jaiswal, O.R., 2008. Effect of Prestressing on the First Flexural Natural Frequency of Beams. Structural Engineering and Mechanics 28 (5), 515– 524. Kralovanec, J., Bahleda, F., Moravcik, M., 2022. State of Prestressing Analysis of 62-Year-Old Bridge. Materials 15 (10), 1–20, 3583. Lantsoght, E.O.L., Zarate, G., Zhang, F., Park, M.K., Yang, Y., Sliedrecht, H., 2021. Shear Experiments of Prestressed Concrete Bridge Girders. ACI Structural Journal 118 (3), 117–130. Le, T.D., Pham, T.M., Hao, H., 2020. Numerical Study on the Flexural Performance of Precast Segmental Concrete Beams with Unbonded Internal Steel Tendons. Construction and Building Materials 248, 1–19, 118362. Lee, S.H., Abolmaali, A., Shin, K.J., Lee, H.D., 2020. ABAQUS Modeling for Post-Tensioned Reinforced Concrete Beams. Journal of Building Engineering 30, 101273. Limongelli, M.P., Siegert, D., Merliot, E., Waeytens, J., Bourquin, F., Vidal, R., Le Corvec, V., Gueguen, I., Cottineau, L.M., 2016. Damage Detection in a Post Tensioned Concrete Beam – Experimental Investigation. Engineering Structures 128, 15–25. Lou, T., Lopes, S.M.R., Lopes, A.V., 2013. Nonlinear and Time-Dependent Analysis of Continuous Unbonded Prestressed Concrete Beams. Computers and Structures 119, 166–176. Lou, T., Lopes, S.M.R., Lopes, A.V., 2014. A Finite Element Model to Simulate Long-Term Behavior of Prestressed Concrete Girders. Finite Elements in Analysis and Design 81, 48–56. Murray, C.D., Diaz Arancibia, M., Okumus, P., Floyd, R.W., 2019. Destructive Testing and Computer Modeling of a Scale Prestressed Concrete I Girder Bridge. Engineering Structures 183, 195–205. Noble, D., Nogal, M., O’Connor, A., Pakrashi, V., 2015. Dynamic Impact Testing on Post–Tensioned Steel Rectangular Hollow Sections; An Investigation into the “Compression–Softening” Effect. Journal of Sound and Vibration 355, 246–263. Noble, D., Nogal, M., O’Connor, A., Pakrashi, V., 2016. The Effect of Prestress Force Magnitude and Eccentricity on the Natural Bending Frequencies of Uncracked Prestressed Concrete Beams. Journal of Sound and Vibration 365, 22–44. Oh, B.H., Kim, K.S., 2004. Shear Behavior of Full-Scale Post-Tensioned Prestressed Concrete Bridge Girders. ACI Structural Journal 101 (2), 176–182. Pang, M., Liu, X., Dong, Y., Lou, T., 2022. Numerical Assessment on Bonded and Unbonded Prestressed Concrete Beams. Buildings 12 (10), 1– 16, 1658. Saudi, M.S., Labia, Y., Douglas, B., 2000. Repair and Performance of a Full-Scale Pretensioned Concrete Girder. PCI Journal 45, 96–105. Strand7, 2010. Release 2.4.6. Pty Ltd. Copyright, http://www.strand7.com. Timoshenko, S., 1946. Strength of Materials Part I - Elementary Theory and Problems. D. Van Nostrand Company, Inc. Van Meirvenne, K., De Corte, W., Boel, V., Taerwe, L., 2018. Non-Linear 3D Finite Element Analysis of the Anchorage Zones of Pretensioned Concrete Girders and Experimental Verification. Engineering Structures 172, 764–779. Wang, X., Mao, X., Frangopol, D.M., Dong, Y., Wang, H., Tao, P., Qi, Z., Tang, S., 2021. Full-Scale Experimental and Numerical Investigation on the Ductility, Plastic Redistribution, and Redundancy of Deteriorated Concrete Bridges. Engineering Structures 234, 111930. Yapar, O., Basu, P.K., Nordendale, N., 2015. Accurate Finite Element Modeling of Pretensioned Prestressed Concrete Beams. Engineering Structures 101, 163–178.
Made with FlippingBook flipbook maker