- Project plans
- Project activities
- Legislation and standards
- Industry context
Last edited 22 Nov 2018
Forensic engineering in developing countries
Civil engineers generally take a cautious approach when constructing complex systems, as any mistakes or misunderstandings of the physical world can lead to disastrous consequences, such as catastrophic failure of a building or structure. When tragic incidents like this occur, they are a lesson to be learned and passed on to others so the profession can avoid repetition of a similar disaster in the future.
 Looking for flaws in the system
Failures and disasters are often attributed to mistakes or deviations from the normal, committed by individuals, or to the unpredictability of the physical world (nature) itself.
Forensic engineering takes a different approach – looking at failures or disasters as a consequence of a flaw in the system of professional practice rather than as an isolated incident which could have been easily avoided. The Institution of Civil Engineers (ICE) has been advocating this approach through its journal Forensic Engineering.
 A new field for developing countries
The systems of professional practice of both engineering and law are considerably different in developed and developing countries. While the practice and education of forensic engineering has progressed considerably in the developed world, it is still practically unknown in the developing world.
There is also a great deal more building taking place in developing countries and this, coupled with lack of resources means that structures and works are often more at risk of failure. All this makes it important to develop forensic engineering to suit the professional environment in these countries. As a first step, Forensic Engineering journal's editorial panel have published a themed issue featuring four full-length papers.
 Increased risk in urban areas
In the first paper, 'Learning from experience to avoid collapse', Alastair Soane (2016), director for structural safety at the Institution of Structural Engineers in London, advocates that the basic principles of forensic engineering can be learnt by people in developing countries from their peers in developed countries who have gone through the learning process.
He draws attention to the fact that increased urbanisation of developing countries could lead to an increase in disasters and that there is an urgent need to take proactive steps to mitigate the risk of failures.
In the paper on 'Rapid structural assessment of garment factories in Bangladesh', Hodgson et al. (2016) give details of the assessment made on over 200 factories in the aftermath of a collapsed factory building. This paper highlights issues related to documentation and quality control which are found wanting and the consequent risks in buildings which are in use.
 Identifying causes of collapse
The paper on 'Lessons from structural failures in India' by Satish Kumar (2016) first highlights the typical state of affairs in the construction industry in most countries and discusses aspects of education, professional practice, legal frameworks and implementation needed to improve the situation.
It then goes on to give several case studies where partial or total collapse occurred during or after construction. The causes of the collapses are identified and the paper tries to find systemic and policy solutions by which they can be avoided in the future.
Adding an entirely different dimension to forensic engineering is the paper by Gunn et al. (2016) on 'Aged embankment imaging and assessment using surface waves'. The development of this technique is crucial to prevent failure of old earthwork infrastructure under extreme weather conditions.
This article was originally published here by ICE on 14 Dec 2016. It was written by Harshavardhan Subbarao.
 Related articles on Designing Buildings Wiki
Featured articles and news
The struggle to achieve net-zero emissions by 2050.
What is 'agent of change' and who does it protect?
A consistent and measurable approach to home adaptation.
Acknowledging and challenging the realms and interpretations of heritage.
Embodied carbon in construction steel.
A prototype for assessing circularity in buildings.
New Wiki site is set to make BIM mainstream.
FMEA is a step-by-step approach for collecting knowledge about possible points of failure.
The various types and everything else.
Building legislation and guidance updates.