The centrality of engineering codes and risk-based design standards in climate adaptation strategies

Author:

Stakhiv Eugene Z.12

Affiliation:

1. Environmental Science Studies Department, Johns Hopkins University, Washington DC, USA

2. UNESCO International Center for Integrated Water resources Management (ICIWaRM), Alexandria, VA, USA

Abstract

Abstract Engineering codes, design standards and analytical criteria for hydraulic structures are the final determinative specifications for designing and constructing a water resources project. As such, they are the authoritative and legally accepted standards for project design and construction. Engineering codes and standards are developed to optimize public safety and performance by focusing on structural reliability, which includes a wide range of extreme conditions that encompass most contemporary climate uncertainties, and which are likely to overlap some portion of future climate non-stationary conditions. Current practices of risk-based planning and design standards have evolved incrementally, responding to each catastrophic natural disaster, whether it is geotechnical, floods, droughts or hurricanes. Design standards and building codes encompass an accumulation of changes that progressively reflect changing climate conditions, most notably because they focus on climate extremes. Design standards and embedded ‘safety factors’ that are based on extremes are likely to encompass a good deal of an anticipated non-stationary climate regime and its associated uncertainties. Modern risk analysis methods and risk-based standards, codes and methods comprise an important part of a progressive autonomous adaptation to climate change. They represent an essential component of ‘no regrets’ climate adaptation.

Publisher

IWA Publishing

Subject

Management, Monitoring, Policy and Law,Water Science and Technology,Geography, Planning and Development

Reference104 articles.

1. A comparison of local and aggregated climate model outputs with observed data

2. Adaptation by design: the impact of changing climate on infrastructure;Auld;Journal of Public Works and Infrastructure,2008

3. Practical resilience metrics for coastal infrastructure features

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