Table of Contents
Volume 1:
Preface
SP-228—1: Implementation of High-Performance
Concrete Bridge Technology in the USA 1
by S.N. Vanikar and L.N. Triandafilou
SP-228—2: Performance Based Design for Self-Compacting
Structural High-Strength Concrete 13
by H. Okamura, K. Maekawa, and T. Mishima
SP-228—3: High-Performance Concrete—A Proven Material with
Unfulfilled Potential 35
by J. Moksnes
SP-228—4: Ultra-High-Performance Concrete: Research, Development
and Application in Europe 51
by M. Schmidt and E. Fehling
SP-228—5: High-Strength Concrete (ACI 363R) 79
by ACI Committee 363 - High-Strength Concrete
SP-228—6: Use of High-Strength Concrete for Seismic Applications 81
by ACI Innovation Task Group 4
SP-228—7: Very High-Strength Rapid-Hardening Concrete 85
by V.R. Falikman, Y.V. Sorokin, and O.O. Kalashnikov
SP-228—8: Prediction of Concrete Rheology Based on Analytical Mix Design Model 97
by T.T. Roshavelov
SP-228—9: Fracture Energy of Rice-Husk Ash Concrete 111
by G. Giaccio, G.R. de Sensale, and R. Zerbino
SP-228—10: Non-Conventional Aggregates and Mineral Admixtures in
High-Performance Concrete 123
by R.A. Gayoso Blanco and M.R. Lam
SP-228—11: The Maturity Approach for Predicting Different Properties of
High-Performance Concrete 135
by J. Zhang, D. Cusson, L. Mitchell, T. Hoogeveen, and J. Margeson
SP-228—12: Effect of Silica Fume and Water to Binder Ratio on the
Diffusion of Chloride Ion into Concrete in Persian Gulf Region 155
by M. Chini, M. Hoseini, P. Ghods, R. Alizadeh, M. Ghalibafian, and M. Tadayon
SP-228—13: The Correlation between the Water/Cementitious Material Ratio
and HPC Compressive Strength 165
by S.F. Freyne, W. Micah Hale, and B.W. Russell
SP-2228—14: Entraining Air in High-Performance Concrete
and Its Effect on Compressive Strength 173
by W. Micah Hale, S.F. Freyne, and B.W. Russell
SP-228—15: Strength, Durability and Shrinkage of
High-Strength Rice Husk Ash Concrete 189
by H.B. Mahmud, E. Majuar, M.F.M. Zain, and N.B.A.A. Hamid
SP-228—16: The Myth, Reality, and Construction Practicality of
High Volume Fly Ash Replacement 203
by R. Szecsy
SP-228—17: Comparision of Two Metakaolins and a Silica Fume
Used as Supplementary Cementitious Materials 213
by J.M. Justice, L.H. Kennsion, B.J. Mohr, S.L. Beckwith, L.E. McCormick, B. Wiggins, Z.Z. Zhang, and K.E. Kurtis
SP-228—18: Properties of High-Strength Concrete
Using a High Fly Ash Content 237
by K.-Ch. Thienel, A. Kustermann, J. Junggunst, and R.K. Zimebelmann
SP-228—19: Fast Track Construction with High-Strength Concrete Mixes Containing Ground Granulated Blast Furnace Slag 255
by M.N. Soutsos, S.J. Barnett, J.H. Bungey, and S.G. Millard
SP-228—20: Performance of High Volume Fly Ash Concrete
Exposed to Acidic Environment 271
by L.V.A. Seshasayi, K. Ramu, and Y. Srinivasarao
SP-228—21: Properties of High-Performance Concrete Containing
High Reactivity Metakaolin 287
by A. Bonakdar, M. Bakhshi, and M. Ghalibafian
SP-228—22: Implementation of Self-Consolidating Concrete for
Prestressed Concrete Girders 297
by P. Zia, R.A. Nunez, L.A. Mata, and H.M. Dwairi
SP-228—23: Textile Carbon Reinforcement for Base Slabs of
Self-Consolidating Concrete 317
by J. Hegger and J. Niewels
SP-228—24: Stability of Long-Span Pretensioned
High-Performance Concrete Girders 333
by A. Saber and L.F. Kahn
SP-228—25: The Effect of Steel Fibers on the Moment Redistribution and
Rotation Capacity of Post-Tensioned High-Strength Concrete Beams 351
by P. De Pauw and L. Taerwe
SP-228—26: Effect of r¢ on Ductility of HSC Members Under Bending 363
by A.A. Maghsoudi and H. Akbarzadeh Bengar
SP-228—27: An Evaluation of the Fatigue Behavior of
High-Strength/High-Performance Concrete Bulb-Tee Girders 381
by C.B. Tanner and P.H. Ziehl
SP-228—28: Behavior and Design of HSC Members Subjected to
Axial Compression and Flexure 395
by H.C. Mertol, S.J. Kim, A. Mirmiran, S. Rizkalla, and P. Zia
SP-228—29: Flexural Behavior and Design of High-Strength Concrete Members 421
by Z. Wu, W. Choi, A. Mirmiran, S. Rizkalla, and P. Zia
SP-228—30: Prestress Losses in Pretensioned Girders
Part I: Method Development 439
by N. Al-Omaishi and M.K. Tadros
SP-228—31: Prestress Losses in Pretensioned Girders
Part II: Experimental Program 461
by N. Al-Omaishi and M.K. Tadros
SP-228—32: Evaluation of the Behavior of the Bond in High-Strength Concrete 481
by M.T. Barbosa
SP-228—33: Bond Anchorgae Behavior of Pretensioned Tendons in
High-Performance Concrete (HPC) 495
by J. Hegger, B. Kommer, S. Bülte, and A. Sherif
SP-228—34: Bond of Reinforcement in Ultra High-Strength Concrete 513
by K. Holschemacher, D. Weiße, and S. Klotz
SP-228—35: Lap Splices with High-Strength Concrete under
Combined Flexure and Shear Loading 529
by N. Morohashi and T. Sakurada
SP-228—36: Shortcomings of Current Compression Strength Tests
for HSC and a Proposed Solution 545
by I. Luker and S.W. Tabsh
SP-228—37: Uniaxially Loaded High-Strength Concrete Spiral Columns 557
by E. Canbay, Z.B. Koru, G. Ozcebe, and U. Ersoy
SP-228—38: Behavior of Geopolymer Concrete Columns
under Equal Load Eccentricities 577
by D.M.J. Sumajouw, D. Hardjito, S. Wallah, and B.V. Rangan
SP-228—39: Seismic Response of High-Rise RC Buildings
Made of High-Strength Materials 595
by D. Konstantinidis
SP-228—40: Development of High Seismic Performance Concrete Frames 615
by Y. Sun and T. Fukuhara
SP-228—41: Development of Precast High-Performance Fiber Reinforced Cement Composite Coupling Beams for Earthquake-Resistant Wall Systems 633
by G.J. Parra-Montesinos, J.K. Wight, and B.A. Canbolat
SP-228—42: Shear Design Procedure for Reinforced and Prestressed
High- and Normal-Strength Concrete Beams 651
by A. Cladera and A.R. Marí
SP-228—43: Minimum Flexure and Shear Reinforcement for HSFRC 669
by Z. Savir and A.N. Dancygier
SP-228—44: Experimental Study on Shear Resistance of
Steel Fiber Reinforced High-Strength Concrete Beams 687
by C.-K. Huang, H.-Z. Zhang, and Z.-G. Guan
SP-228—45: Shear Behavior of HPC Bulb-Tee Girders 705
by K.K. Raymond, R.N. Bruce, and J.J. Roller
SP-228—46: Shear Capacity of Beams Made of High-Performance Concrete 723
by J. Hegger, A. Sherif, and S. Görtz
SP-228—47: Torsional Behavior of High-Strength Concrete Beams with
Lower Amounts of Torsional Reinforcement 741
by I.-K. Fuang and H.-J. Chiu
Volume 2:
SP-228—48: Push-out Tests on Headed Studs in High-Strength Concrete 769
by J. Hegger, S. Rauscher, and C. Goralski
SP-228—49: Use of High-Strength/High-Performance Concrete (HSHPC)
in NYSDOT Bridges 787
by M. Royce
SP-228—50: High-Performance Concrete Bridges in Washington State 801
by B. Khaleghi and J. Weigel
SP-228—51: History of HPC in Virginia 821
by C. Ozyildirim
SP-228—52: The Development of High-Performance Concrete for
Transportation Structures in New Jersey 833
by N. Suksawang, H. Nassif, and H. Capers, Jr.
SP-228—53: High-Performance Concrete for the Woodrow Wilson Memorial Bridge 849
by T.A. Kite
SP-228—54: Experimental Study on the Behvior of High-Strength and Normal-Strength Concrete Beams in a Tennessee Bridge 863
by X.S. Huo, P. Zhu, and F. Ung
SP-228—55: Development of High-Performance Concrete Mixtures for Durable Bridge Decks in Montana Using Locally Available Materials 883
by J.S. Lawler, P.D. Krauss, and C. Abernathy
SP-228—56: Mechanical Properties of High-Performance Concrete Made for Bridge Decks using West Virginia Aggregates 903
by I. Ray, J.F. Davalos, Z. Gong, and A. Chatterjee
SP-228—57: Interface Bond Characterization of High-Performance Concrete
Overlays and Substrate 917
by J.F. Davalos, I. Ray, Z. Sun, and T. Hong
SP-228—58: Guide Specification for HPC Bridge Elements 933
by P.C. Taylor and S.B. Bhide
SP-228—59: The Concrete Pavement Technology Program (CPTP) —
Promoting High-Performance Concrete Pavements 943
by S.S. Tyson, K.D. Smith, S.D. Tayabji, and R.M. Larson
SP-228—60: “High-Performance Concrete Carpet” A New Concept of
Concrete Pavement 959
by F. de Larrard
SP-228—61: Performance-Based Paving Concrete Mixture
Design and Optimization 971
by J.M. Ruiz, R.O. Rasmussen, and M. Simon
SP-228—62: Recent Research Projects to Investigate Mechanical Properties of
High-Performance Lightweight Concrete 991
by K.S. Harmon
SP-228—63: Design, Development and Use of the Concrete for the Superstructure of the Viaduct Section of the Docklands Light Railway Extension, London 1009
by J.M. Best, S.R. Maynard, and E.A. Kay
SP-228—64: Research, Development, and Application of High-Performance Concrete in China: A National Report 1027
by N.-Q. Feng, J.-H. Yan, and G.-F. Peng
SP-228—65: Development and Construction Record on High-Strength Concrete with the Compressive Strength Exceeding 150 MPa 1045
by H. Jinnai, S. Kuroiwa, S. Watanabe, S. Namiki, and M. Hayakawa
SP-228—66: Effect of High Temperatures on High-Strength Concretes
Incorporating Cooper Slag Aggregate 1063
by A. Behnood
SP-228—67: Effects of Elevated Temperature on the Strength Development and Microstructure of High-Performance Concrete with Fly Ash 1075
by K.-B. Park and T. Noguchi
SP-228—68: Residual Mechanical Properties and Explosive Spalling of Fibre-Toughened High-Performance Concrete Exposed to High Temperatures 1087
by G.-F. Peng, G.-L. Qi, Y.-F. Liu, W.-J. Gu, Q.-X. Yi, and Y. Pan
SP-228—69: Residual Stress and Permeability of Hybrid Fiber-Reinforced
High-Strength Concrete Exposed to High Temperature 1097
by S.L. Suhaendi, T. Horiguchi, and N. Saeki
SP-228—70: Construction of an Optimized UHPC Vechicle Bridge 1109
by B.A. Graybeal and J.L. Hartmann
SP-228—71: The First use of UHPC Technology for an Innovative LRT Station Canopy Shawnessy, Calgery, Alberta 1119
by V. Perry and D. Zakariasen
SP-228—72: Economic Mix Design Ultra High-Strength Concrete 1133
by K. Holschemacher and D. Weiße
SP-228—73: Experimental Investigation on Ultra High-Strength Concrete under Concentrated Loading 1145
by K. Holschemacher, F. Dehn, S. Klotz, and D. Weiße
SP-228—74: Properties of Expansive-Ultra High-Strength Concrete 1159
by M. Suzuki, I. Maruyama, and R. Sato
SP-228—75: Prediction of Temperature in Ultra High-Strength Concrete Based on Temperature Dependent Hydration Model 1175
by I. Maruyama, M. Suzuki, and R. Sato
SP-228—76: Innovative Design of Ultra High-Performance Fiber Reinforced Concrete Ribbed Slab: Experimental Validation and Preliminary Detailed Analyses 1187
by F. Toutlemonde, J. Resplendino, L. Sorelli, S. Bouteille, and S. Brisard
SP-228—77: Acoustic Emission Response and Mechanical Characterization of
Ultra High-Performance Concrete Types 1207
by S. Marijan, B. Dubravka, and S. Zeljana
SP-228—78: Formulations, Characterizations and Applications of
Ultra High-Performance Concrete 1221
by I. Lallemant-Gamboa, S. Chanut, J.-P. Lombard, J. Chaignon, and T. Thibaux
SP-228—79: Mechanical Properties of Reactive Powder Concrete Beams 1237
by R. Gao, P. Stroeven, and C.F. Hendriks
SP-228—80: Fatigue Flexural Behavior of Pre-cracked Specimens of
Special UHPFRC 1253
by M. Behloul, G. Chanvillard, P. Pimienta, A. Pineaud, and P. Rivillon
SP-228—81: Influence of Fibre Ratio on Properties of Steel Fibre
High-Strength Concrete 1269
by T.R.A. Mohammad
SP-228—82: Influence of Curing Methods on the Formation of Microcracks in
High-Strength Concrete 1281
by A. Kustermann, K.-C. Thienel, and M. Keuser
SP-228—83: 3-D Finite Element Analysis of Early-Age Bridge Deck Cracking 1295
by W. Dekelbab, M.A.N. Hendriks, and R. Witasse
SP-228—84: Evaluation of Cracking Tendency and Unrestrained Shrinkage of High-Performance Concrete Mixes in Cast-in-Place and Precast Bridge Applications 1315
by B. Czarnecki and J. Kroman
SP-228—85: Effect of Shrinkage Reducing Admixture on the Shrinkage Behavior of
High-Strength Concrete 1329
by Y. Yang, X. Ou, M. Chen, and W. Chen
SP-228—86: Experimental Study on Mechanical Properties of Ultra-High-Strength Concrete with Low-Autogenous-Shrinkage 1341
by T. Ichinomiya, Y. Hishiki, T. Ohno, Y. Morita, and K. Takada
SP-228—87: Restrained Shrinkage Testing of High-Performance Concrete Modified with Structural Lightweight Aggregate 1353
by D. Cusson, T. Hoogeveen, and L. Mitchell
SP-228—88: Improvement of Time-Dependent Flexural Behavior in RC Members by Using Low Shrinkage-High-Strength Concrete 1373
by M. Tanimura, M. Suzuki, I. Maruyama, and R. Sato
SP-228—89: Creep and Shrinkage of High-Performance/High-Strength Concrete 1397
by N. Suksawang, H. Nassif, and A. Mohammed
SP-228—90: Effect of Moisture Content on the Air Permeability of Concrete 1417
by T. Hassan and P. Zia
SP-228—91: Comparison of Test Results from Laboratory and Long-Term Exposure on Durability of Reinforced Concrete in Marine Environment 1435
by B. Lin and Y. Cai
SP-228—92: The Use of Metakaolin and Geopolymer Cement to Improve Concrete Resistance to Sulfuric Acid Attack 1453
by E.H. Hewayde, E.N. Allouche, and G. Nakhla
SP-228—93: Sorptivity Characteristics of High-Performance Mortars 1467
by A. Sharma and R. Rambalack
SP-228—94: The Effect of Different Surface Coatings on the
Chloride Penetration into Concrete 1481
by M. Hoseini, R. Alizadeh, M. Chini, P. Ghods, and M. Shekarchi
SP-228—95: Durability Improvement of Cement Binders against Alkali Deterioration of Glass Fiber Embedded in Mortar or Acid Attack in Sewerage by Incorportating with
Blast Furnace Fume 1493
by A. Yonekura, H. Ito, S. Wakasugi, S. Goto, S. Numata, and H. Maeda
SP-228—96: Influence of Aggressive Environmental Effects on the
High-Strength/High-Performance Concrete 1509
by C. Magureanu, B. Heghes, and B. Rosca