Abstract
Concrete, by nature, is a non-uniform, non-isotropic structural material consisting of aggregate particles, air voids and moisture distributed heterogeneously in a hardened matrix. Variations in its production and subsequent attack by the environment mean that concrete is not totally immune to defects although it is generally a durable and maintenance-free material.
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References
American Concrete Institute. Corrosion of Metal in Concrete. ACI Report 222R-85 (1985).
American Society for Testing and Materials. Penetration Resistance of Hardened Concrete. ASTM C803–79 (1979).
American Society for Testing and Materials. Standard Test Method for Rebound Number of Hardness of Concrete. ASTM C805–79 (1979).
American Society for Testing and Materials. Standard Test Method for Half-cell Potentials of Reinforcing Steel in Concrete. ASTM C876–80 (1980).
American Society for Testing and Materials. Standard Test Method for Pulse Velocity through Concrete. ASTM C803–82 (1982).
American Society for Testing and Materials. Standard Test Method for Pull-out Strength of Hardened Concrete. ASTM C900–87 (1987).
British Standards Institution. BS 4408: Part 1: 1969 Non-destructive methods of test for concrete — electromagnetic cover measuring devices.
British Standards Institution. BS 4408: Part 2: 1969 Recommendations for non-destructive methods of test for concrete — strain gauges for concrete investigations.
British Standards Institution. BS 1881: Part 5: 1970 Methods of testing hardened concrete for other than strength.
British Standards Institution. BS 4408: Part 3: 1970 Non-destructive methods of test for concrete - gamma radiography of concrete.
British Standards Institution. BS 4408: Part 4: 1970 Non-destructive methods of test for concrete - surface hardness methods.
British Standards Institution. BS 4408: Part 5: 1970 Non-destructive methods of test for concrete - measurement of the velocity of ultrasonic pulses in concrete.
British Standards Institution. BS 6089: 1981 Guide to assessment of concrete strength in existing structures.
British Standards Institution. BS 1881: Part 114: 1983 Methods for determination of density of hardened concrete.
British Standards Institution. BS 1881: Part 120: 1983 Method for determination of the compressive strength of concrete cores.
British Standards Institution. BS 1881: Part 122: 1983 Method for determination of water absorption.
British Standards Institution. BS 1881: Part 201: 1986 Guide to the use of non-destructive methods of test for hardened concrete.
British Standards Institution. BS 1881: Part 202: 1986 Recommendations for surface hardness testing by rebound hammer.
British Standards Institution. BS 1881: Part 203: 1986 Recommendations for measurement of velocity of ultrasonic pulses in concrete.
British Standards Institution. BS 1881: Part 124: 1988 Methods for analysis of hardened concrete.
Building Research Establishment, UK. Simplified method for the detection and determination of chloride in hardened concrete. Information Sheet 12 /77 (1977).
Building Research Establishment, UK. Determination of chloride and cement content in hardened Portland cement concrete. Information Sheet 13 /77 (1977).
Bungey, J. H. The Testing of Concrete in Structures. Surrey University Press, London (1987).
Chabowski, A. J. and Bryden-Smith, D. W. Internal Fracture Testing of insitu Concrete: A Method of Assessing Compressive Strength. Information Paper IP 22/80, Building Research Establishment, UK (October, 1980 ).
Child, C. A. Checking carbonation and chlorides on site. Concrete (May, 1988 ).
Concrete Society, UK. Concrete Core Testing for Strength. Technical Report No. 11 (1976).
Construction Industry Development Board. Building Diagnosis — A Guide to Non-destructive Testing Methods on Concrete. Construction Industry Development Board, Singapore (1988).
Crane, A. P, Corrosion of Reinforcement in Concrete Structures. Ellis Horwood, Chichester, UK (1983).
Higgins, D. D. Diagnosing the causes of defects or deterioration in concrete structures. Concrete (October, 1981 ).
Institution of Structural Engineers. Appraisal of Existing Structures. Institution of Structural Engineers, London (July, 1980 ).
Jones, R. Non-destructive Testing of Concrete. Cambridge University Press, London (1962).
Khoo, L. M. Pull-out Technique — An Additional Tool for insitu Concrete Strength Determination. Publication SP 82, American Concrete Institute, Detroit (1984).
Langford, P. and Broomfield, J. Monitoring the corrosion of reinforcing steel. Construction Repair, UK (May, 1987 ).
Malhotra, V. M. Testing Hardened Concrete: Non-destructive Methods. Monograph No. 9, American Concrete Institute, Detroit (1976).
Malhotra, V. M. Insitu/non-destructive Testing of Concrete. Publication SP 82, American Concrete Institute, Detroit (1984).
Malhotra, V. M. and Carino, N. J. (ed.). CRC Handbook on Non-destructive Testing of Concrete. CRC Press, Florida, USA (1991).
Munday, G. L. and Dhir, R. K. Assessment of insitu Concrete Quality by Core Testing. Publication SP 82, American Concrete Institute, Detroit (1984).
Neville, A. M. Properties of Concrete. Longman, London (1988).
Pullar-Strecker, P. Corrosion Damaged Concrete: Assessment and Repair. Butterworths, London (1987).
Schupack, M. Fast field test for chloride ions. Concrete Construction (July, 1989 ).
Snell, L. M. et al, Locating reinforcement in concrete. Concrete International (April, 1986 ).
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© 1993 Lee How Son and George C. S. Yuen
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Son, L.H., Yuen, G.C.S. (1993). Concrete Defects — Inspection and Diagnosis. In: Building Maintenance Technology. Macmillan Building and Surveying Series. Palgrave, London. https://doi.org/10.1007/978-1-349-23150-8_6
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DOI: https://doi.org/10.1007/978-1-349-23150-8_6
Publisher Name: Palgrave, London
Print ISBN: 978-0-333-48993-2
Online ISBN: 978-1-349-23150-8
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