Lessons Learned from the 2023 Türkiye Earthquakes: Buildings, Governance, and the Digital Dimension of Resilience

On this page
- What Happened, in Verified Numbers
- The Deepest Lesson: Disasters are Built, Not Just Suffered
- The Built Environment: Where the Deaths Actually Came From
- Disaster Management, Logistics, and Institutional Coordination
- The Digital Dimension: Communication, Data Interoperability, and Early Warning
- Vulnerable Demographics: The Populations Overlooked by Standard Response Models
- Synthesis: Paying Down the Outstanding Resilience Debt
- References
1.
What Happened, in Verified Numbers
In the early hours of 6 February 2023, an earthquake of moment magnitude Mw 7.7 ruptured near Pazarcık in Kahramanmaraş province at 04:17 local time. Roughly nine hours later, a second event of Mw 7.6 struck near Elbistan. This unprecedented seismic doublet caused a complex multi-fault rupture along the East Anatolian Fault system, with surface faulting extending hundreds of kilometres across an area of approximately 120,000 km², directly impacting some 14 million people.
53,537
Official Deaths
107,000+
Injuries Recorded
37,984
Buildings Collapsed
$103.6B
Total Economic Cost
| Indicator | Official / Verified Figure | Source |
|---|---|---|
| Magnitudes | Mw 7.7 (Pazarcık) + Mw 7.6 (Elbistan) | AFAD |
| Provinces directly affected | 11 provinces (17 declared disaster areas) | SBB 2025 |
| People directly affected | ~14 million (≈9.1M directly impacted per UN) | SBB 2025; UNFPA 2023 |
| Displaced Population | 3 million+ citizens displaced | UNFPA 2023 |
| Total Housing Destruction | 37,984 collapsed; ~280,000 unusable or heavily damaged | SBB 2025; UNFPA 2023 |
| Largest Damage Segments | Housing (~55%) | Public Infrastructure (~USD 12.9 billion) | SBB 2025 |
2.
The Deepest Lesson: Disasters are Built, Not Just Suffered
A convergent finding across the academic literature is that the catastrophic outcome was completely preconditioned. The tectonic hazards of the East Anatolian Fault system were thoroughly documented; what failed was a matching investment in regional preparedness, severely undermined by exposure and weak enforcement mechanisms (Hussain et al., 2023).
This analytical position forms the core pillar of the co-authored Journal of Risk Research study, which reframes the entire catastrophe around four pivotal strands: structural vulnerabilities in domestic housing and critical health facilities; operational execution under harsh winter constraints and cascading aftershocks; centralized command and communication gridlocks during the golden 72-hour rescue window; and the structural limitations of national disaster-risk frameworks (Teker, Bilgin & Yildiz, 2026). The inquiry shifts from the inevitability of the hazard to an audit of an accumulated, generational "resilience debt."
3.
The Built Environment: Where the Deaths Actually Came From
The structural record proves that the killer was not the seismic event alone, but the widespread frailty of buildings that failed to protect their occupants (Teker, Bilgin & Yildiz, 2026).
Systemic Structural Failure Mechanisms
Post-disaster forensic engineering reports systematically identified the same reinforced-concrete failure modes: weak/soft storeys (typically ground floors altered for commercial use), strong-beam/weak-column detailing anomalies, short-column configurations, missing transverse reinforcement, and compromised material mixtures (Yön et al., 2024; Demir et al., 2024; Tunç, Mertol & Akış, 2024). Advanced structural modeling indicates that hundreds of buildings were subjected to vertical seismic components that completely overmatched design standards (Oz & Omur, 2025; Morales-Beltran, 2025).
The Fallacy of Modernity: "Code-Compliant" Collapses
While pre-1999 buildings suffered expectedly high failure rates due to lax historical oversight (Hansu & Oğuz, 2025), the most critical revelation is that newer stock fell as well. Nominal compliance on paper failed in practice: modern high-rise blocks and precast structures collapsed abruptly due to fragile connection detailing and uncalculated infill-wall interactions (Avcil, 2023; Aras et al., 2025).
Erzin as the Empirical Counter-Narrative
The city of Erzin (Hatay) offers strong evidence that destruction is not a fatalistic certainty. Despite undergoing intense regional shaking, Erzin recorded zero building collapses due to historical, uncompromised local enforcement of construction regulations (Reckford & Miyamoto, 2023). This aligns with global history: Japan's 1995 Kobe earthquake proved that 95% of building failures occurred in structures predating the 1981 code overhaul, and the engineered high-rises during the 2011 Tōhoku event successfully withstood massive shaking, proving that rigorous administrative enforcement translates directly into preserved lives (Teker et al., 2026).
4.
Disaster Management, Logistics, and Institutional Coordination
Operational Capacities Overwhelmed
Following the 1999 Marmara disaster, Türkiye established a comprehensive theoretical framework: updating building codes, centralizing command under AFAD, and launching the National Earthquake Strategy (UDSEP-2023) (Teker et al., 2026). However, the immense multi-provincial footprint of the 2023 doublet under freezing winter conditions severely overmatched these centralized plans. The structural toll on public healthcare was immediate: 20 hospitals sustained severe damage (13 Ministry of Health facilities, 1 university hospital, 6 private institutions), alongside the destruction or disabling of 243 primary-care facilities, forcing immediate emergency transitions into ad-hoc tent and container clinics (SBB, 2025; Teker et al., 2026).
Historic Mobilization Scale
The national mobilization was the largest in the country's history, deploying over 270,000 national personnel and integrating 11,000 international specialists within 48 hours through active INSARAG protocols (SBB, 2025; Teker et al., 2026). Grassroots civil search organizations like AKUT, public healthcare networks, and immediate localized civilian actions saved thousands of lives before formal command groups could physically arrive.
The Centralization Bottleneck
Concurrently, the data confirms deep coordination fractures during the golden first 72 hours. Total power grid failures, severed telecom systems, and the collapse of regional emergency response hubs caused significant deployment delays. Crucially, rigid, over-centralized command lines hindered real-time operational flexibility, causing multiple search units to duplicate efforts at high-profile sites while remote settlements went completely unassisted (Comfort et al., 2025; Teker et al., 2026).
Critical Logistics Lifelines as Single Points of Failure
A key lesson of the 2023 sequence is that critical transport lifelines were built on equally fragile ground. Siting emergency asset entryways on active faults or liquefiable soils is a major planning failure. For example, Hatay Airport's runway was knocked out of service for six critical days due to fault ruptures and severe liquefaction displacements of 30–40 cm (Çetin et al., 2024; Papadopoulos et al., 2023). The Port of İskenderun, vital for incoming heavy rescue equipment, was paralyzed by massive wharf damage and a structural fire, while major arterial roads and pipelines were severed where they intersected fault traces (ASCE, 2026).
"When transport lifelines fail, the first-48-hour coordination crisis is systematically compounded precisely where mobilization needs to be fastest. Hazard mapping must urgently extend beyond housing to encompass the structural foundations of transport, port, and logistics assets."
Local Municipal Capacity and State Governance
The affected region spanned approximately 160 municipalities. While local administrations are theoretically integrated into risk reduction via Provincial Disaster Risk-Reduction Plans (İRAP), the official SBB assessment explicitly calls for a systemic overhaul based on cross-stakeholder cooperation (SBB, 2025). This stands as an institutional admission that local tier municipal budgets, emergency equipment stocks, and trained personnel require profound structural empowerment to function effectively before central government mechanisms can organize and deploy.
5.
The Digital Dimension: Communication, Data Interoperability, and Early Warning
The digital dimension represents the most forward-looking component of modern disaster risk reduction (DRR), yet the 2023 deployment highlighted sharp contradictions between infrastructure resilience and information policy.
Functional Telecom Collapse
The collapse of physical fiber trunks and commercial mobile towers during the first 48 hours caused a devastating functional disaster. Blinded local teams could not map priority zones or coordinate rescue routing (Sarı, 2025). The empirical remedy requires designing for immediate communication redundancy: deploying localized LEO satellite systems (such as the ad-hoc usage of Starlink networks), autonomous radio communications, and resilient mesh kits directly into first-responder templates (Teker et al., 2026).
Data Interoperability and AI
While disjointed institutional applications created dangerous data silos, open-source tech volunteers successfully crowdsourced real-time rescue coordinates and shelter locations. Independent studies prove that integrating open APIs, machine learning on multi-station seismic arrays, and automated satellite/drone damage mapping (UNOSAT models) significantly shortens operational response timelines (Ersoz et al., 2024; Nemutlu et al., 2025).
The Limits of Early Warning Systems (EEW)
Modern EEW networks can transmit vital seconds of warning via cellular interfaces to automate critical shut-offs (halting rapid transit systems, pausing gas pipelines, or opening elevator doors) (Teker et al., 2026). Yet, for an earthquake doublet whose lethality was completely dictated by structural failure, no digital notification layer could compensate for decades of construction negligence. Early warning must be leveraged as an operational complement, never an alternative to structural physics.
Information Integrity vs. Civilian Network Access
Amidst 33,000 relentless aftershocks, information integrity transformed into a life-safety requirement. While the Presidency Communications Directorate attempted to counter panic through regular disinformation bulletins (DMM, 2023), the operational record reveals a complex dynamic: the temporary restriction of major civilian social-media platforms during the initial response window severely degraded volunteer coordination and cut off active location feeds routed by trapped survivors (Comfort et al., 2025). True risk governance requires a dual commitment: neutralizing false alerts while actively preserving uninhibited access to the open digital channels that civilian search ecosystems rely upon during crises.
6.
Vulnerable Demographics: The Populations Overlooked by Standard Response Models
Standardized logistical response templates frequently fail vulnerable sub-populations whose specific needs require dedicated integration into pre-disaster planning:
Medically Dependent Citizens
Patients dependent on uninterrupted electrical power grids for oxygen and basic life-support (e.g., ALS/MND demographics) faced acute survival crises, proving the urgent necessity for decentralized, power-buffered medical registries (Rodoplu, 2026).
Health System Surge Bundles
Emergency radiology and trauma services required immediate structural adaptation. Managing massive multi-casualty influxes demands automated CT-first trauma protocols, instant cloud-based teleradiology arrays, and rigorous data downtime systems (Aydin et al., 2025).
Women Entrepreneurs & Capital
Post-disaster business recovery programs systematically misallocated aid by focusing exclusively on visible structural damage while ignoring complete functional disruptions, which heavily impacted women-led small enterprises (Orhan et al., 2025).
7.
Synthesis: Paying Down the Outstanding Resilience Debt
The data compiled from independent scholarship and institutional studies confirms a reality: the catastrophic toll of February 2023 was not an inevitable outcome (Teker, Bilgin & Yildiz, 2026). Turning these insights into an active framework requires immediate transformation across five core policies:
1. Constitutional Enforcement of Codes
Enact a permanent, constitutional ban on all construction and zoning amnesties. Re-establish building code enforcement as an independent, third-party life-safety agency completely isolated from political cycles and localized developer interests.
2. Hardening Critical Logistics Infrastructure
Mandate comprehensive geotechnical microzonation, fault-crossing engineering, and soil-liquefaction mitigations for airports, shipping ports, bridges, and primary highways to guarantee response capacity during the first 48 hours.
3. Decentralized Operational Readiness
Replace paper-based compliance plans with continuous, automated inter-agency stress-testing, logistics simulation exercises, and robust winterized asset distribution directly managed at the first-responder municipal tier.
4. Redundant Communication and Interoperable Open Data
Establish mandatory LEO satellite and mesh networks across responder networks, mandating uniform, API-first software standards to unify state databases with civilian volunteer data feeds in real time.
5. The Imminent Challenge: The Istanbul Metropole
This structural transformation is an immediate operational requirement. Current predictive hazard modeling for the Istanbul metropolitan area—a megacity of over 15 million citizens on the North Anatolian Fault—makes it clear that if this resilience debt remains unpaid, the historical bill will inevitably be presented again with catastrophic human and economic costs (Journal of Risk Research, 2025).
References
Peer-Reviewed Literature
References
- Aras, F., Doğan, T. P., Öztürk, M., Tün, M., Işık, E., & Arslan, M. H. (2025) Assessment of the damage caused by the 6 February 2023 earthquakes on old and new dated reinforced concrete buildings in Elbistan, Turkey. Advances in Structural Engineering, 29, 1336–1363.
- Avcil, F. (2023) Investigation of precast reinforced concrete structures during the 6 February 2023 Türkiye earthquakes. Sustainability.
- ASCE (2026) Assessment of infrastructure failures in the 2023 Kahramanmaraş earthquakes. ASCE OPEN: Multidisciplinary Journal of Civil Engineering, 4(1).
- Aydin, S., Yurttutan, N., Kizildag, B., Korkmaz, I., Peköz, B. Ç., Karazincir, S., & Onur, M. R. (2025) Lessons learned from the 2023 Türkiye twin earthquakes: how radiology facilities can respond to disasters. Clinical Radiology, 93, 107208.
- Comfort, L. K., Celik, S., Basbug Erkan, B., & Lee, S. (2025) Communication and coordination in the 2023 Kahramanmaraş earthquakes. Earthquake Spectra, 41(1), 34–57.
- Demir, A., Çelebi, E., Ozturk, H., Ozcan, Z., Ozocak, A., Bol, E., et al. (2024) Destructive impact of successive high-magnitude earthquakes in Türkiye's Kahramanmaraş on February 6, 2023. Bulletin of Earthquake Engineering, 23, 893–919.
- Ersoz, A., Pekcan, O., Altun, M., Teke, T., & Aydogmus, O. (2024) Utilizing digital technologies for rapid damage assessment and reconnaissance: the February 6, 2023 Kahramanmaraş-Türkiye earthquakes. Bulletin of Earthquake Engineering, 23, 5049–5067.
- Hansu, O., & Oğuz, A. (2025) Seismic risk, structural vulnerabilities, and retrofitting solutions: lessons from the 2023 Kahramanmaraş earthquake. Osmaniye Korkut Ata Üniversitesi Fen Bilimleri Enstitüsü Dergisi.
- Hussain, E., Kalaycıoğlu, S., Milliner, C., & Çakır, Z. (2023) Preconditioning the 2023 Kahramanmaraş (Türkiye) earthquake disaster. Nature Reviews Earth & Environment, 4, 287–289.
- Liu, C., Lay, T., Wang, R., Taymaz, T., Xie, Z., Xiong, X., et al. (2023) Complex multi-fault rupture and triggering during the 2023 earthquake doublet in southeastern Türkiye. Nature Communications, 14.
- Morales-Beltran, M. (2025) Understanding 60 years of soft storey in Türkiye: an interdisciplinary perspective. Natural Hazards, 121(10), 11297–11336.
- Nemutlu, Ö. F., Özçelik, S., & Freeshah, M. (2025) A machine learning framework for regional damage assessment using multi-station seismic parameters: insights from the 2023 Kahramanmaraş earthquakes. Buildings.
- Orhan, E., Wein, A. M., Kroll, C., & Fung, J. (2025) Lessons in business recovery following the 2023 Kahramanmaraş earthquake sequence, Türkiye, informed by women entrepreneurs. Earthquake Spectra, 41, 1910–1940.
- Oz, I., & Omur, M. (2025) Evaluating the seismic fragility and code compliance of Turkish reinforced concrete buildings after the 6 February 2023 Kahramanmaraş earthquake. Applied Sciences, 15(10), 5554.
- Reitman, N., Briggs, R., Barnhart, W., Hatem, A., Jobe, J. T. A., DuRoss, C., et al. (2023) Rapid surface rupture mapping from satellite data: the 2023 Kahramanmaraş, Turkey, earthquake sequence. The Seismic Record.
- Rodoplu, Ü. (2026) Lessons learned for ALS/MND patients after the 2023 Türkiye earthquake. Prehospital and Disaster Medicine.
- Sarı, B. (2025) Disaster management following the great Kahramanmaraş earthquakes in 2023, Türkiye. Natural Hazards and Earth System Sciences.
- Teker, Y., Bilgin, R., & Yildiz, A. (2026) Reflecting on the 6 February 2023, Türkiye–Syria earthquake: key lessons on disaster risk, response, and resilience. Journal of Risk Research, 29(1), 23–32.
- Tunç, G., Mertol, H., & Akış, T. (2024) Lessons learned from four recent Turkish earthquakes: Sivrice-Elazığ, Aegean Sea, and dual Kahramanmaraş. Natural Hazards, 120, 12341–12373.
- Woo, G., Gargiulo, M. V., Napolitano, F., Amoroso, O., Russo, R., & Capuano, P. (2024) Turkish earthquake death tolls: lessons from downward counterfactual analysis and informal construction. Frontiers in Earth Science, 12, 1376924.
- Yön, B., Dedeoğlu, İ. O., Yetkin, M., Erkek, H., & Calayır, Y. (2024) Evaluation of the seismic response of reinforced concrete buildings in light of lessons learned from the February 6, 2023, Kahramanmaraş, Türkiye earthquake sequences. Natural Hazards, 121, 873–909.
Official and Institutional Reports
References
- T.C. Cumhurbaşkanlığı Strateji ve Bütçe Başkanlığı (SBB) (2025) 2023 Kahramanmaraş and Hatay Earthquakes Report. Official Link
- T.C. Cumhurbaşkanlığı İletişim Başkanlığı, Dezenformasyonla Mücadele Merkezi (DMM) (2023) Deprem Dezenformasyon Bültenleri (Feb–Mar 2023).
- INSARAG (2023) After Action Review: Türkiye–Syria Earthquakes, February 2023. UN OCHA.
- UNFPA Türkiye (2023) Türkiye Earthquake Situation Report #6. Situation Report Link
- AFAD (2023) Arazi Ön Raporu / Preliminary Field Report, 6 February 2023 Earthquakes.
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