Table of Contents
Preface
SP-218—1: First Use of Lightweight High-Performance Concrete Beams in Virginia 1
by C. Ozyildirim, T. Cousins, and J. Gomez
SP-218—2: Transfer and Development Length of 0.6-inch Strand in High Strength Lightweight Concrete 9
by K. F. Meyer and L. F. Kahn
SP-218—3: Review of Parameters Influencing the Seismic Design of Lightweight Concrete Structures 29
by M. J. Kowalsky and H. M. Dwairi
SP-218—4: Lightweight Concrete in the Marine Environment 51
by P. Fidjestol
SP-218—5: Shear Strength of Lightweight Reinforced Concrete Beams 69
by J. A. Ramirez, J. Olek, and B. J. Malone
SP-218—6: Composite Bridge Systems with High-Performance
Lightweight Concrete 91
by G. S. Sylva, N. H. Burns, and J. E. Breen
SP-218—7: Lightweight Concrete Makes a Dam Float 101
by C. L. Tasillo, B. D. Neeley, and A. A. Bombich
SP-218—8: Internal Curing—Role of Absorbed Water in Aggregates 131
by T. A. Hammer, Ø. Bjøntegaard, and E. J. Sellevold
SP-218—9: Mitigating Autogenous Shrinkage by Internal Curing 143
by M. R. Geiker, D. P. Bentz, and O. M. Jensen
SP-218—10: Use of Magnetic Resonance Imaging to Study Internal
Moist Curing in Concrete Containing Saturated Lightweight Aggregate 155
by F. de Jesus Cano Barrita, T. W. Bremner, and B. J. Balcom
SP-218—11: Development of Very Low Density Structural Lightweight Concrete 177
by M. A. Caldarone and R. G. Burg
SP-218—12: Norway Bridges Using High Performance Lightweight
Aggregate Concrete 189
by K. S. Harmon