Technical disaster

Technical or technological disasters are caused by events that can be intense and sudden, induced by human processes. They originate from technological or industrial conditions, dangerous procedures, infrastructure failures or specific human activities (UNGA, 2016).

Technical systems are complex, with many dependent subsystems. The failure of one element within this system can cascade throughout the chain, causing a series of failures leading to a disaster. Technical hazards are increasing due to the scope of technological expansion. They include industrial activity that includes dangerous conditions, processes, all transport systems (land, sea, air), defensive or offensive weapons systems and power plants.

A new set of emerging technological risks under the Sendai Framework include Information and communications technology (ICT)-related hazards. The increasing dependence upon complex large-scale network architectures of information technologies also increases exposure to cyber security threats. These threats include computer viruses, worms, Trojan horses, malware, spoofing attacks, identity theft, the theft and illegal disclosure of data, the loss of data and contamination of data. They have the potential to disrupt essential infrastructure operations such as communication, health, banking, transportation, energy, education and many other services.

Risk factors

  • Ageing, abandoned or idle installations.
  • Insufficient institutional and legal capacities.
  • Natural hazards: storms, landslides, floods or earthquakes can cause industrial accidents.

Vulnerable areas

  • Residential communities around industrial establishments tend to be most at risk because of their proximity.

Risk reduction measures

  • Assess the risks before planning and building critical infrastructure.
  • Develop policies and practices for continuity management.
  • Integrate the risks into planning, foresee and reduce cascading effects.
  • Create a hazard map to identify people at risk and their vulnerability.
  • Draft national, regional and local response plans.
  • Put in place early warning/monitoring systems to inform response.
  • Ensure contingency and response plans are in place at a national and local level to evacuate people on time.
  • Assess new technologies.
  • Improve crisis communication before, during and after the event.
  • Organize training and exercises for complex scenarios involving multiple interdependent failures.
  • Educate and raise awareness on potential risks.

Latest Technical Disaster additions in the Knowledge Base

Aerial picture of a mining tailings dam
When an earthquake occurs, the risk to tailings storage facilities (TSF), often referred to as tailings dams, may not be front of mind.
University of New South Wales
False information surrounding the derailment of a train carrying toxic chemicals in East Palestine, Ohio in early February has circulated at alarming rates in the incident’s aftermath.
International Journalists' Network
The report says the high-risk sites in Delhi are commonly found on high-speed national highways, expressways. They are often road sections which cut through places with high pedestrian volume such as schools, metro stations, and commercial areas.
The Indian Express
Cover
Prepare with Pedro is a 30- to 45-minute preparedness education program for grades K-2 that teaches students how to be prepared and take action for home fires.
Operatives within the building industry have called for review of current approaches to curbing structural failures, most of which result in collapse of buildings, loss of lives and properties.
Guardian, the (NG)
This study aims to consolidate knowledge and generate learning on the uses of social media and crowdsourcing in disaster management processes within the LINKS Framework. Research was conducted in five practitioner-driven case scenarios in Europe.
LINKS
Cover of the OECD brochure: arial view of tanks in the sunset
This brochure aims to raise awareness of Natech risks and the challenges associated with their management. Using examples, it highlights key characteristics of Natech accidents, and gaps and challenges in analysing and managing Natech risks.
Computers can be trained to better detect distant nuclear detonations, chemical blasts and volcano eruptions by learning from artificial explosion signals, according to a new method devised by a University of Alaska Fairbanks scientist.
University of Alaska Fairbanks

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