Earthquake
Earthquakes – the key challenge for insuring the semiconductor industry in Asia
Asian male technician in sterile coverall holds wafer that reflects many different colors with gloves and check it at semiconductor manufacturing plant
© PonyWang / Getty Images

In early 2025, a series of earthquakes in the Asia-Pacific region raised widespread concerns. On 28 March, a 7.7-magnitude earthquake struck Myanmar, causing casualties and extensive infrastructure damage, with post-disaster relief efforts still ongoing. Two days later, a 7.3-magnitude earthquake hit the Tonga Islands, over 12,000 kilometres away. These events have sparked a public discourse on the earthquake activity period and prompted various sectors to focus more on earthquake prevention and disaster reduction.

However, from a global perspective, the frequency of earthquake activity in 2025 has not shown a significant increase compared to previous years, and it is still unclear whether or not we have actually entered a period of increased earthquake activity. Nevertheless, the frequent occurrence of earthquakes has prompted us to consider their impacts on tech industries such as the semiconductor sector. This article will chiefly explore how the semiconductor industry can respond to these “core” challenges posed by geological disasters, and how the insurance industry can improve its risk management mechanisms to address these challenges. 

The impacts of earthquakes on the semiconductor industry

In the semiconductor industry, earthquakes can cause significant direct impacts, including structural cracks in or even the total collapse of facilities, as well as damage to critical equipment – resulting in substantial property losses and business interruptions. Given the industry’s heavy reliance on high-precision instruments, cutting-edge semiconductor plants are typically built with careful consideration of the local geological conditions and are subject to stricter seismic construction standards to enhance their structural resilience. Additionally, wafer production lines are designed with anti-seismic features to withstand a certain degree of environmental vibration. However, due to the extreme sensitivity of semiconductor manufacturing processes, even facilities with robust seismic protection measures in place may still experience considerable damage and operational disruptions during a major earthquake.

Despite strict seismic protection standards, earthquakes can still significantly disrupt semiconductor operations due to the industry’s aforementioned reliance on high-precision equipment. Key impacts include:

  • Facility and Equipment Damage: Structural damage and disrupted utilities (water, power, gas) can stop production.
  • Production Losses: Emergency shutdowns often lead to wafer scrapping and extended downtime due to equipment recalibration.
  • Precision Equipment Failure: Sensitive components can become misaligned due to vibrations, leading to defects or equipment malfunctions.
  • Supply Chain Disruptions: Damage to upstream raw material facilities may lead to shortages or contamination.
  • Secondary Hazards: Compromised hazardous material storage can result in fires, explosions, or toxic leaks.

Major recent losses

The following examples indicate the varying impacts that earthquakes can have on the semiconductor market and thus on the global semiconductor industry:
Date Location Magnitude Impact
11 March 2011 Japan (Tohoku) M9.0 Major disruption of global chip supply, international price volatility
6 February 2016 Taiwan (Kaohsiung) M6.7 Plant shutdowns, supply shortages, price spikes
14 April 2016 Japan (Kumamoto) M7.3 Plant damage, production stops, disrupted global semiconductor supply
15 November 2017 South Korea (Pohang) M5.5 Minor impact, production resumed quickly due to buffer stock
6 February 2018 Taiwan (Hualien) M6.4 Raw material shortages, downstream supply affected
16 March 2022 Japan (Honshu) M7.3 Automotive and chip industry shutdowns, global supply chain disruptions
3 April 2024 Taiwan (Hualien) M7.4 Widespread equipment damage, plant shutdowns, significant economic and insurance losses
21 January 2025 Taiwan (southern) M6.0 No major structural damage but equipment shutdowns and large-scale wafer scrapping

The crucial role of the insurance industry

The insurance industry should not limit its role to underwriting but is encouraged to actively support clients with risk prevention and design optimisation – particularly in connection with high-risk scenarios such as earthquakes. Given the semiconductor sector’s reliance on precision manufacturing and uninterrupted power supplies, it remains highly susceptible to seismic events and fires. Moreover, its complex and interconnected supply chain means that any disruption can lead to significant business interruption losses. To support the industry’s sustainable growth, insurers are encouraged to work closely with semiconductor companies to establish robust risk prevention systems and strengthen overall risk management practices.
The early involvement of all stakeholders – including insurers – during the design and construction phases of semiconductor projects allows advanced seismic technologies and disaster prevention standards to be seamlessly integrated. This proactive approach helps avoid costly retrofits and operational disruptions caused by the delayed implementation of critical measures such as equipment anchoring and seismic bracing. By participating in early design reviews, insurers can help embed seismic resilience from the outset – reducing future risk exposure, optimising lifecycle costs, and enhancing overall plant stability and uptime.
Insurers can play a key role in encouraging insureds to comply with both domestic seismic codes and internationally recognised standards like NFPA 318 and FM Global Data Sheet 7-7. This dual-standard approach promotes a comprehensive, multi-layer protection framework that significantly reduces physical damage, minimises production downtime and economic losses, and enhances overall disaster resilience and recovery efficiency.
Given the geographic concentration of semiconductor facilities, insurers must evaluate cumulative risk exposure and actively promote the adoption of international standards to mitigate cascading losses from natural disasters. The continuous monitoring of insured assets, construction integrity, and resilience measures – supported by advanced data modelling and scenario analysis – enables more effective risk portfolio management and reduces vulnerability to catastrophic events.

To ensure operational continuity during disasters, insurers should encourage and actively help insureds develop comprehensive risk control frameworks and strengthen their Business Continuity Management (BCM) and Disaster Recovery Planning (DRP) systems. Key strategies include:

  • Redundant configurations for critical equipment
  • Flexible utility connections and seismic isolation systems
  • Remote backups for IT infrastructure
  • Comprehensive emergency response planning and regular drills
  • Resilience assessments across key supply chain nodes

Amid rising risk challenges, the insurance industry is advised to adopt a more collaborative model. By encouraging semiconductor clients to implement local seismic standards and integrate advanced international practices early in project planning, primary insurers can promote the development of safe, reliable, and resilient manufacturing systems.

As a reinsurer, Munich Re leverages its global and local expertise, along with decades of experience in the high-tech sector, to help primary insurers identify and manage catastrophic and semiconductor-specific risks.

Experts

Min Liu
Min Liu
NatCat Consultant & Underwriter, Property Treaty, Munich Re Greater China
Steven Cui
Steven Cui
Senior Underwriter (Property), F&C, Munich Re Greater China
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