The full development of marine technologies for the industrial exploitation of deep‐sea resources requires the availability of exhaustive engineering data on the degradation of constructional materials when immersed at great length in ocean environments. An overall review of behavioural figures from reliable sources allows to point out major weaknesses and uncertainties with candidate alloys and consequent demands for ameliorative and innovative investigation. Prominent objects of research can be envisaged, accordingly, in: (i) formulating low‐alloy steels whose surface is chemically convertible (by suitable pretreatments or free corrosion itself) so as to abate the rate of oxygen cathodic reduction i.e. the current density required for cathodic protection; (ii) singling out high‐strength steels whose resistance to corrosion‐fatigue and hydrogen embrittlement is in proportion to the strength level; (iii) developing cheaper alternatives to high‐molybdenum stainless alloys resistant to localised corrosion; (iii) combining (in optimal composites) the outstanding resistance of titanium to saltwater corrosion and the low‐cost good mechanical properties of steels.
Article navigation
Review Article|
February 01 1986
Chemo‐mechanical reliability of metallic materials in deep ocean environments — Part 1
G. Bombara
G. Bombara
Industrial Consultant for Materials R&D, Rome, M. Cavallini, Dipartimento Ingegneria Chimica, Materiali, Materie Prime e Metallurgia, University of Rome, and S. Maisano, ENI Group, Rome
Search for other works by this author on:
Publisher: Emerald Publishing
Online ISSN: 2977-7003
Print ISSN: 0066-4731
© MCB UP Limited
1986
Anti-Corrosion Manual (1986) 33 (2): 4–11.
Citation
Bombara G (1986), "Chemo‐mechanical reliability of metallic materials in deep ocean environments — Part 1". Anti-Corrosion Manual, Vol. 33 No. 2 pp. 4–11, doi: https://doi.org/10.1108/eb020417
Download citation file:
Suggested Reading
Chemo‐mechanical reliability of metallic materials in deep ocean environments — Part 2
Anti-Corrosion Manual (March,1986)
Review of chemo‐responsive shape change/memory polymers
Pigment & Resin Technology (June,2013)
An experimental and constitutive investigation on the chemo-mechanical behaviour of a clay
Geotechnique (March,2013)
A conceptual model for the chemo-mechanical degradation of granular geomaterials
Geotechnique Letters (September,2012)
Chemo-mechanical behaviour of non-expansive clays accounting for salinity effects
Geotechnique (December,2022)
Related Chapters
An experimental and constitutive investigation on the chemo-mechanical behaviour of a clay
Bio- and Chemo-Mechanical Processes in Geotechnical Engineering: Géotechnique Symposium in Print 2013
Couplages chémo-mécaniques dans les sols compactés
traités à la chaux
Geotechnical Engineering for Infrastructure and Development: XVI European Conference on Soil Mechanics and Geotechnical Engineering
A chemo-mechanical constitutive model accounting for cation exchange in expansive clays
Bio- and Chemo-Mechanical Processes in Geotechnical Engineering: Géotechnique Symposium in Print 2013
Recommended for you
These recommendations are informed by your reading behaviors and indicated interests.
