182 Damage to concrete structures
Matsushita F., Aono Y. and Shibata S. (2009) ‘Carbonation shrinkage mechanism of
a tobermorite-based material’, in Creep, Shrinkage and Durability Mechanisms
of Concrete and Concrete Structures, Tanabe et al. (Eds.), Taylor and Francis
Group, London, ISBN 978-0-415-48508-1, 41–47.
Mehta P.K. (2000) ‘Sulfate attack on concrete: separating myths from reality’,
Concrete International, 22, 8, 57–61.
Monteny J., Vincke E., Beeldens A., De Belie N., Taerwe L., Van Gemert D. and
Verstraete W. (2000) ‘Chemical, microbiological, and in situ test methods for
biogenic sulphuric acid corrosion on concrete’, Cement and Concrete Research,
30, 4, 623–634.
Moskvin V.M. (1978) ‘Cavitation erosion of concrete’, Power Technology and
Engineering, Vol. 12, No.12, 1215–1218.
Multon S., Cyr M., Sellier A., Diederich P. and Petit L. (2010) ‘Effects of aggregate
size and alkali content on ASR expansion’, Cement and Concrete Research,
40, 4, 508–516.
Neville A. (2004) ‘The confused world of sulfate attack on concrete’, Cement and
Concrete Research, 34, 1275–1296.
Neville A.M. and Brooks J.J. (2010) Concrete Technology, Second Edition, Prentice
Hall, Pearson, ISBN 978-0-273-73219-8.
Mehta P.K. and Monteiro P.J.M. (2006) Concrete: Microstructure, properties and
materials, McGraw-Hill, Third Edition, ISBN 0-07-146289-9.
O’Connell M., McNally C. and Richardson M.G. (2010) ‘Biochemical attack on
concrete in wastewater applications: A state of the art review’, Cement and
Concrete Composites, 32, 479–485.
Papenfus N. (2003) ‘Applying concrete technology to abrasion resistance’,
Proceedings of the 7 th International Conference on Block Paving, South Africa,
ISBN 0-958-46091-4, pp.9.
Pel L., Huinink H., Kopinga K. and Van Hees R.P.J. (2004) ‘Efflorescence pathway
diagram: understanding salt weathering’, Construction and Building Materials,
18, 5, 309–313.
Phan L.T. and Carino N.J. (2000) ‘Fire performance of high strength concrete:
research needs’, in Advanced Technology in Structural Engineerg, ASCE/SEI
Structures Congress, Ed. Algaaly E., pp.8.
Pourbaix M. (1976) ‘Atlas of electrochemical equilibrium in aqueous solutions’,
Pergamon, London.
Powers T.C. (1945) ‘A working hypothesis for further studies of frost resistance of
concrete’, Journal of the American Concrete Institute, 16, 4, 245–272.
Powers T.C. and Steinour H.H. (1955) ‘An interpretation of some published reachearchers on alkali-aggregate reaction. Part 1 – The chemical reactions and
mechanisms of expansion’, Journal of the American Concrete Institute, 26,
497–516.
Powers T.C. and Steinour H.H. (1955) ‘An interpretation of some published reachearchers on alkali-aggregate reaction. Part 2 – A hypothesis concerning safe
and unsafe reactions with reactive silica in concrete’, Journal of the American
Concrete Institute, 26, 785–811.
Powers T.C. (1975) ‘Freezing effects in concrete’, in Durability of Concrete, ACI
SP-47, 1–11.
Matsushita F., Aono Y. and Shibata S. (2009) ‘Carbonation shrinkage mechanism of
a tobermorite-based material’, in Creep, Shrinkage and Durability Mechanisms
of Concrete and Concrete Structures, Tanabe et al. (Eds.), Taylor and Francis
Group, London, ISBN 978-0-415-48508-1, 41–47.
Mehta P.K. (2000) ‘Sulfate attack on concrete: separating myths from reality’,
Concrete International, 22, 8, 57–61.
Monteny J., Vincke E., Beeldens A., De Belie N., Taerwe L., Van Gemert D. and
Verstraete W. (2000) ‘Chemical, microbiological, and in situ test methods for
biogenic sulphuric acid corrosion on concrete’, Cement and Concrete Research,
30, 4, 623–634.
Moskvin V.M. (1978) ‘Cavitation erosion of concrete’, Power Technology and
Engineering, Vol. 12, No.12, 1215–1218.
Multon S., Cyr M., Sellier A., Diederich P. and Petit L. (2010) ‘Effects of aggregate
size and alkali content on ASR expansion’, Cement and Concrete Research,
40, 4, 508–516.
Neville A. (2004) ‘The confused world of sulfate attack on concrete’, Cement and
Concrete Research, 34, 1275–1296.
Neville A.M. and Brooks J.J. (2010) Concrete Technology, Second Edition, Prentice
Hall, Pearson, ISBN 978-0-273-73219-8.
Mehta P.K. and Monteiro P.J.M. (2006) Concrete: Microstructure, properties and
materials, McGraw-Hill, Third Edition, ISBN 0-07-146289-9.
O’Connell M., McNally C. and Richardson M.G. (2010) ‘Biochemical attack on
concrete in wastewater applications: A state of the art review’, Cement and
Concrete Composites, 32, 479–485.
Papenfus N. (2003) ‘Applying concrete technology to abrasion resistance’,
Proceedings of the 7 th International Conference on Block Paving, South Africa,
ISBN 0-958-46091-4, pp.9.
Pel L., Huinink H., Kopinga K. and Van Hees R.P.J. (2004) ‘Efflorescence pathway
diagram: understanding salt weathering’, Construction and Building Materials,
18, 5, 309–313.
Phan L.T. and Carino N.J. (2000) ‘Fire performance of high strength concrete:
research needs’, in Advanced Technology in Structural Engineerg, ASCE/SEI
Structures Congress, Ed. Algaaly E., pp.8.
Pourbaix M. (1976) ‘Atlas of electrochemical equilibrium in aqueous solutions’,
Pergamon, London.
Powers T.C. (1945) ‘A working hypothesis for further studies of frost resistance of
concrete’, Journal of the American Concrete Institute, 16, 4, 245–272.
Powers T.C. and Steinour H.H. (1955) ‘An interpretation of some published reachearchers on alkali-aggregate reaction. Part 1 – The chemical reactions and
mechanisms of expansion’, Journal of the American Concrete Institute, 26,
497–516.
Powers T.C. and Steinour H.H. (1955) ‘An interpretation of some published reachearchers on alkali-aggregate reaction. Part 2 – A hypothesis concerning safe
and unsafe reactions with reactive silica in concrete’, Journal of the American
Concrete Institute, 26, 785–811.
Powers T.C. (1975) ‘Freezing effects in concrete’, in Durability of Concrete, ACI
SP-47, 1–11.