Publications
Proceedings pro033 : 3rd International RILEM Symposium on Self-Compacting Concrete
Title: 3rd International RILEM Symposium on Self-Compacting Concrete Edited by O. Wallevik and I. Nielsson ISBN: 2-912143-42-X e-ISBN: 2912143713 Pages: 1056 Publication date: 2003 |
Self-compacting concrete (SCC) is considered by many experts to be the greatest breakthrough in concrete technology for many decades due to the improved performance and working environment. It all started around 1988 at Tokyo University with Prof. Okamura and his students, among others Ozawa and Maekawa, as they established the basic description of SCC. Before that, several cases of application were known in which the concrete did not need external consolidation to obtain necessary compaction and could therefore be considered as SCC, without being defined as such.
From Japan the technology spread through Asia and came to Europe around 1993. The first RILEM Technical Committee on SCC (TC 174-SCC) chaired by Dr. Skarendahl, was established in 1997 and concluded its work with a state-of-the-art report published in 2000 (RILEM Report n° 23). In 1998 an international workshop on SCC was held in Kochi, Japan and was followed up with RILEM First International Symposium on SCC in Stockholm, Sweden in 1999. Only two years later, the Second International Symposium was held in Tokyo, Japan. RILEM established the second technical committee in the year 2000, TC 188-CSC: "Casting of Self-Compacting Concrete", with more emphasis on production aspects. The latest big step in the process has probably been taken in North-America where an insignificant amount of SCC was produced in the year 2000, but it presumably exceeded one million cubic meters in total by the end of 2002. The first North-American conference on SCC was held with a great success in 2002, chaired by Prof. Shah.
This third International Symposium on SCC is held in association with RILEM Technical Committee 188-CSC, with 108 contributions from 26 countries, presented in 10 sessions:
A. OPENING SESSION
B. RHEOLOGY / WORKABILITY
C. FORM PRESSURE AND THIXOTROPY
D. MEASUREMENT TECHNIQUE
E. CHEMICAL ADMIXTURES
F. MIX-DESIGN AND PRODUCTION
G. MECHANICAL PROPERTIES
H. SPECIAL SCC (FR & LWA)
I. DURABILITY
J. APPLICATION AND CASE STUDY
As can be seen in these proceedings, the way or approach of producing SCC is quite different in the various countries depending on traditions and materials available. We hope that this RILEM symposium will contribute to a better understanding of various ways of optimising the production and use of SCC in general, and in particular to recognize "where to find the answer".
Contents
A. Opening session
Applications of self-compacting concrete in Japan Author(s): H. Okamura, M. Ouchi |
Pages: 3 - 5 |
A. Opening session
The present - The future Author(s): Å. Skarendahl |
Pages: 6 - 14 |
Structural aspects of self compacting concrete Author(s): J. Walraven |
Pages: 15 - 22 |
Rheology - a scientific approach to develop self-compacting concrete Author(s): O. Wallevik |
Pages: 23 - 31 |
B. Rheology / Workability
On the combined effect of measuring procedure and coagulation rate on apparent rheological properties Author(s): M. Geiker |
Pages: 35 - 40 |
Computational rheology thixotropic explorations of cement pastes; an introduction Author(s): J. E. Wallevik |
Pages: 41 - 48 |
Rheological measurements on self-compacting fibre reinforced concrete Author(s): S. Grünewald, J.C. Walraven |
Pages: 49 - 58 |
Rheological evaluation of some empirical test methods -preliminary results- Author(s): I. Níelsson, O. H. Wallevik |
Pages: 59 - 68 |
Pseudoplastic and thixotropic properties of SCC equivalent mortar made with various admixtures Author(s): A.F. Ghezal, K.H. Khayat |
Pages: 69 - 83 |
Quality-test to prove the flow behavior of SCC on site Author(s): G. Buchenau, B. Hillemeier |
Pages: 84 - 93 |
Defining the stability criterion of a sphere suspended in a cement paste : a way to study the segregation risk in self-compacting concrete (SCC) Author(s): S. Bethmont, L. D'Aloia Schwarzentruber, C. Stefani, R. Leroy |
Pages: 94 - 105 |
The relationship between the rheological properties of SCC and the corresponding matrix phase Author(s): B. Pedersen, S. Smeplass |
Pages: 106 - 116 |
Characterization of fine aggregate affecting pressure transferability of fresh mortar in self-compacting concrete Author(s): M. Ouchi, M. Fukuda |
Pages: 117 - 121 |
The effects of HRWRA-VMA combinations on fresh behavior of concrete equivalent mortar based on blended cement Author(s): A. Ghezal |
Pages: 122 - 135 |
Ultra high performance self compacting concrete Author(s): J. Ma, J. Dietz, F. Dehn |
Pages: 136 - 142 |
Effect of constituents on the workability and rheology of self-compacting concrete Author(s): J. Carlswärd, M. Emborg, S. Utsi, P. Öberg |
Pages: 143 - 153 |
Relation between workability and rheological parameters Author(s): S. Utsi, M. Emborg, J. Carlswärd |
Pages: 154 - 164 |
Influence of fines from crushed aggregate on micro-mortar rheology Author(s): M. Westerholm, B. Lagerblad |
Pages: 165 - 173 |
The influence of the temperature on the rheological properties of self-compacting concrete Author(s): W. Brameshuber, S. Uebachs |
Pages: 174 - 183 |
Self-compacting concrete with lignosulphonate based superplasticizer Author(s): K. Reknes, B. Gudding Petersen |
Pages: 184 - 189 |
Influence of silica fume on rheology of cement paste Author(s): H. Vikan, H. Justnes |
Pages: 190 - 201 |
Simulation of self-compacting concrete-laboratory experiments and numerical modelling of testing methods, JRING and L-box tests. Author(s): Ö. Petersson |
Pages: 202 - 207 |
Methods for characterisation of fillers and fines for self-compacting concrete Author(s): O. Esping |
Pages: 208 - 219 |
Controlling the workability properties of self-compacting concrete used as ready-mixed concrete Author(s): S. Kordts, W. Breit |
Pages: 220 - 231 |
Effect of particle shape on paste rheology of SCC Author(s): A.M.M. Sheinn, D.W.S. Ho, C.T. Tam |
Pages: 232 - 239 |
Reduced models test for the characterization of the rheologic properties of self-compacting concrete (SCC) Author(s): C.A. Arbeláez Jaramillo, J.W. Rigueira Victor, J.R. Martí Vargas, P. Serna Ros, M. Pinto Barbosa |
Pages: 240 - 250 |
The use of recycled aggregates from building demolition in self-compacting concrete Author(s): V. Corinaldesi, G. Moriconi |
Pages: 251 - 260 |
Rheological research of modified cement mortar for production of self compacting concrete Author(s): R. Hela, L. Bodnárová |
Pages: 261 - 268 |
C. Form pressure and Thixotropy
Form pressure generated by self-compacting concrete Author(s): P. Billberg |
Pages: 271 - 280 |
Investigations on the formwork pressure using self-compacting concrete Author(s): W. Brameshuber, S. Uebachs |
Pages: 281 - 287 |
Pressure of self-compacting concrete on the formwork Author(s): A. Leemann, C. Hoffmann |
Pages: 288 - 295 |
D. Measurement technique
Testing-SCC: a european project Author(s): Ö. Petersson, J. Gibbs, P. Bartos |
Pages: 299 - 304 |
Study of material properties of SCC by mortar tests Author(s): H.-E. Gram, P. Piiparinen |
Pages: 305 - 310 |
Project testing SCC- segregation test methods Author(s): F. Cussigh, M. Sonebi, G. De Schutter |
Pages: 311 - 322 |
Test methods for filling ability of SCC Author(s): M. Emborg, S. Grünewald, C. Hedin, J. Carlswärd |
Pages: 323 - 334 |
A comparison of passing ability test methods for self-consolidating concrete Author(s): J.A. Daczko |
Pages: 335 - 344 |
A mix-design method for self-compacting concrete based on mortar flow and funnel tests Author(s): Y. Edamatsu, T. Sugamata, M. Ouchi |
Pages: 345 - 354 |
A simple and significant segregation test for SCC Author(s): D. Lowke, K.-H. Wiegrink, P. Schiessl |
Pages: 356 - 366 |
E. Chemical admixtures
Effect of viscosity-modifying admixture-superplasticizer combination on flow properties of SCC equivalent mortar Author(s): K. Khayat, A. Ghezal |
Pages: 369 - 385 |
Evaluation of Hydroxy Propyl starch as a viscosity-modifying agent for self compacting concrete Author(s): V. Rajayogan, M. Santhanam, B. Sivarama Sarma |
Pages: 386 - 394 |
Properties of the concrete matrix of self-compacting concrete with lignosulphonate superplasticizer Author(s): B. Gudding Petersen, K. Reknes |
Pages: 395 - 402 |
Evaluation for the effect of different types of superplasticizers considering the mixing effect Author(s): K. Takada, J. Walraven |
Pages: 403 - 414 |
"Single-shot" admixture for self-compacting concrete Author(s): I. Gibb |
Pages: 415 - 419 |
A study of particle dispersing retention effect of polycarboxylate-based superplasticizers Author(s): T. Sugamata, Y. Edamatsu, M. Ouchi |
Pages: 420 - 431 |
Properties of flowing concrete and self-compacting concrete with high-performance superplasticizer Author(s): R. Sri Ravindrarajah, F. Farrokhzadi, A. Lahoud |
Pages: 432 - 441 |
Pre-testing of self compacting concrete with various mineral additives and admixtures Author(s): K. Paulou |
Pages: 442 - 445 |
A comparative study on the use of mineral and chemical types of viscosity enhancers in self-compacting concrete Author(s): B. Felekoglu, M. Yucel Yardimci, B. Baradan |
Pages: 446 - 456 |
User friendly self-compacting concrete in precast production Author(s): M. Corradi, R. Khurana, R. Magarotto |
Pages: 457 - 446 |
Performance of self-consolidating concrete made with various admixture combinations Author(s): S.-D. Hwang, D. Mayen-Reyna, O. Bonneau, K.H. Khayat |
Pages: 467 - 478 |
F. Mix-design and production
Production of SCC Author(s): F. De Larrard, B. Cazacliu, D. Chopin, E. Château |
Pages: 481 - 494 |
Reference concretes for evaluation of test methods for SCC Author(s): T. Aarre, P. Domone |
Pages: 495 - 505 |
Mix design of HS-SCC and practical application Author(s): I. Nielsson, O. Olafur, H. Wallevik |
Pages: 506 - 513 |
Development and optimisation of medium strength self-compacting concrete by using pulverised fly ash Author(s): M. Sonebi, A. Bahadori-Jahromi, P.J.M. Bartos |
Pages: 514 - 524 |
The mixture proportion and property of SCC Author(s): L.-S. Li, C.-L. Hwang |
Pages: 525 - 529 |
Development of high-strength self-compacting concrete with reduced segregation potential Author(s): R. Sri Ravindrarajah, D. Siladyi, B. Adamopoulos |
Pages: 530 - 532 |
The study on mixture proportion of gap-gradation of aggregate for SCC Author(s): Y.-Y. Chen, C.-T. Tsai, C.-L. Hwang |
Pages: 533 - 539 |
Characterisation of filler Author(s): H. Moosberg-Bustnes |
Pages: 540 - 550 |
G. Mechanical properties
Cracking susceptibility due to volume changes of self compacting concrete (SCC) Author(s): T.A. Hammer |
Pages: 553 - 557 |
Effect of limestone filler on the cement hydration in self-compacting concrete Author(s): A.M. Poppe, G. De Schutter |
Pages: 558 - 566 |
Development of SCC for civil engineering applications Author(s): S. Utsi, J-E. Jonasson, K. Wallin, T. Ekman |
Pages: 567 - 575 |
A study of plastic shrinkage of self-compacting concrete Author(s): P. Turcry, A. Loukili |
Pages: 576 - 585 |
Early age compressive strength prediction of self-compacting concrete: first results Author(s): E. Dehousse, A.-M. Marion |
Pages: 586 - 595 |
Comparison of the hardened properties of self compacting and normal vibrated concrete Author(s): Y. Klug, K. Holschemacher |
Pages: 596 - 605 |
The influence of fillers on the properties of self-compacting concrete in fresh and hardened state Author(s): G. Heirman, L. Vandewalle |
Pages: 606 - 618 |
Homogeneity of structures made with self-compacting concrete and conventional concrete Author(s): C. Hoffmann, A. Leemann |
Pages: 619 - 627 |
Fracture behaviour of self compacting concrete Author(s): C. Fava, L. Bergol, G. Fornasier, F. Giangrasso, C. Rocco |
Pages: 628 - 636 |
Deformability of hardened SCC Author(s): M. Vieira, A. Bettencourt |
Pages: 637 - 644 |
Creep and shrinkage of self-compacting concrete: a different behaviour compared with vibrated concrete? Author(s): G. Pons, E. Proust, S. Assié |
Pages: 645 - 654 |
Durability of self-compacting concrete Author(s): S. Assié, G. Escadeillas, G. Marchese |
Pages: 655 - 662 |
Long-term deformations of self-compacting concrete Author(s): J.L. Vítek |
Pages: 663 - 671 |
Creep and shrinkage of heat-cured self-compactiong-concrete (SCC) Author(s): D. Chopin, O. Francy, S. Lebourgeois, P. Rougeau |
Pages: 672 - 683 |
Bond characteristics of prestressed strands in self-compacting concrete Author(s): C.A. Arbeláez Jaramillo, J.W. Rigueira Victor, J.R. Martí Vargas, P. Serna Ros, M. Pinto Barbosa |
Pages: 684 - 691 |
Anchorage and cracking behaviour of self-compacting concrete Author(s): A. Daoud, M. Lorrain, C. Laborderie |
Pages: 692 - 702 |
Uniformity of bond strength of prestressing strands in conventional flowable and self-consolidating concrete mixtures Author(s): K.H. Khayat, N. Petrov, E.K. Attiogbe, H.T. See |
Pages: 703 - 712 |
H. Special SCC (FR & LWA)
Tunnel segments of self-compacting steel fibre reinforced concrete Author(s): S. Grünewald, J.C. Walraven, B. Obladen, J.W. Zegwaard, M. Langbroek, D. Nemegeer |
Pages: 715 - 724 |
Design of self-compacting lightweight concrete with environment-friendly lightweight aggregate Author(s): E.J. Schuitemaker, K. van Breugel, J.A. den Uijl |
Pages: 725 - 731 |
Self-compacting, high strength steel fibre reinforced mortar for pre-cast sheet piles Author(s): E.S. Lappa, C. van der Veen, J.C. Walraven |
Pages: 732 - 740 |
Development of cement slurries for self-compacting SIFCON with silica fume using factorial design models Author(s): L. Svermova, M. Sonebi, P.J.M. Bartos |
Pages: 741 - 752 |
The design and application of steel-fiber reinforced self-consolidating concrete Author(s): C.-L. Hwang, C.-T. Tsai, H.-T Liu |
Pages: 753 - 762 |
Self-compacting hybrid-fibre concrete - mix design, workability and mechanical properties - Author(s): I. Markovic, J.C. Walraven, J.G.M. van Mier |
Pages: 763 - 775 |
Retrofitting of building structures using pumpable self-compacting lightweight concrete Author(s): M. Haist, V. Mechtcherine, H. Beitzel, H.S. Müller |
Pages: 776 - 785 |
Durability design of structural lightweight SCC in Taiwan Author(s): C.-L. Hwang, M.-F. Hung, C.-H Tsai |
Pages: 786 - 795 |
I. Durability
Transport properties in self-compacting concrete and relation with durability: overview of a Belgian research project Author(s): G. De Schutter, K. Audenaert, V. Boel, L. Vandewalle, D. Dupont, G. Herman, J. Vantomme, J. D'hemricourt |
Pages: 799 - 807 |
Permeability and diffusivity of self-compacting concrete as function of temperature Author(s): H.W. Reinhardt, M. Jooss |
Pages: 808 - 817 |
Chloride penetration in self compacting concrete Author(s): K. Audenaert, G. De Schutter |
Pages: 818 - 825 |
Development of a numerical evaluation tool for performance-based design Author(s): T. Ishida, K. Maekawa, M. Soltani |
Pages: 826 - 836 |
Behaviour of self-compacting concrete concerning frost action with deicing salts Author(s): V. Boel, K. Audenaert, G. De Schutter |
Pages: 837 - 843 |
Investigation of the conditions for a thaumasite form of sulfate attack in SCC with limestone filler Author(s): J. Trägårdh, M. Kalinowski |
Pages: 844 - 854 |
Spalling tests on self-compacting concrete Author(s): H. Vanwalleghem, H. Blontrock, L. Taerwe |
Pages: 855 - 862 |
Self-compacting concrete exposed to fire Author(s): L. Boström |
Pages: 863 - 869 |
The influence of air voids on the properties of self-compacting concretes containing fly ash Author(s): W. Brameshuber, S. Uebachs |
Pages: 870 - 880 |
Frost resistance, chloride transport and related microstructure of field self-compacting concrete Author(s): J. Trägårdh, P. Skoglund, M. Westerholm |
Pages: 881 - 891 |
J. Application and case study
Improvement of the automatic testing apparatus for self-compacting concrete at jobsite Author(s): T. Watanabe, Y. Nakajima, M. Ouchi, K. Yamamoto |
Pages: 895 - 903 |
Laboratory-tests and field-experiences of high-performance SCCs Author(s): M. Collepardi, S. Collepardi, J.J. Ogoumah Olagot, R. Troli |
Pages: 904 - 912 |
Performance of self-consolidating concrete used to repair parapet wall in Montreal Author(s): K.H. Khayat, R. Morin |
Pages: 913 - 919 |
Topic concrete: rationale, development and laboratory performance of an environmentally friendly concrete for piling applications Author(s): P. Fidjestol, Ó. Wallevik, I. Níelsson, I. Holton |
Pages: 920 - 931 |
Possible reasons for blowholes on the surface of SCC Author(s): H.-E. Gram, A. Retelius |
Pages: 932 - 938 |
Bond of reinforcement in self-compacting concrete (SCC) under monotonic and cyclic loading Author(s): G. König, K. Holschemacher, F. Dehn, D. Weiße |
Pages: 939 - 947 |
Self-compacting concrete for slipform operations Author(s): K.T. Fosså |
Pages: 948 - 954 |
Experiences with SCC in the production of prefabricated elements Author(s): K. Juvas |
Pages: 955 - 957 |
Implementation of SCC in Norwegian highway structures Author(s): L.F. Frydendal, B. Pedersen, E. Mørtsell, S. Lønningen, J. Hellum |
Pages: 958 - 967 |
Self-compacting concrete for tunnelling Author(s): F. Dehn, R. Pierson, M. Orgass |
Pages: 968 - 974 |
Development of SCC in Norway - use of CSF Author(s): T.I. Fredvik, N.L. Gundersen, K. Johansen |
Pages: 975 - 985 |
SCC application in a tunnel lining (Chile) Author(s): R. Sciaraffia |
Pages: 986 - 994 |
Use of SCC in a tunnel lining for a railway tunnel in Sweden Author(s): S. Utsi, J.-E. Jonasson, K. Wallin, T. Ekman |
Pages: 995 - 1004 |
Self-compacting concrete made economic Author(s): E. Einarsson |
Pages: 1005 - 1010 |
Deformation properties of SCC and HSC produced from raw materials available in the Czech Republic Author(s): T. Klecka, K. Kolár, J. Kolísko |
Pages: 1011 - 1016 |
Self-compacting concrete (SCC): the construction of the base for the mill of the unimed cement plant of Barletta (Italy) Author(s): M. Paris, S. Tavano, E. Albiero |
Pages: 1017 - 1025 |