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Spain Ministry of Science Cyberattack Triggers Partial IT Shutdown

6 February 2026 at 05:02

Spain Ministry of Science cyberattack

The Spain Ministry of Science cyberattack has caused a partial shutdown of government IT systems, disrupting services used daily by researchers, universities, students, and businesses across the country. While officials initially described the issue as a “technical incident,” boarding evidence and confirmations from Spanish media now point to a cyberattack involving potentially sensitive academic, personal, and financial data. The Ministry of Science, Innovation and Universities plays a central role in Spain’s research and higher education ecosystem. Any disruption to its digital infrastructure has wide-reaching consequences, making this incident far more serious than a routine systems outage.

Official Notice Confirms System Closure and Suspended Procedures

In a public notice published on its electronic headquarters, the ministry acknowledged the disruption and announced a temporary shutdown of key digital services. “As a result of a technical incident that is currently being assessed, the electronic headquarters of the Ministry of Science, Innovation and Universities has been partially closed.” The notice further stated: “All ongoing administrative procedures are suspended, safeguarding the rights and legitimate interests of all persons affected by said temporary closure, resulting in an extension of all deadlines for the various procedures affected.” The ministry added that deadline extensions would remain in place “until the complete resolution of the aforementioned incident occurs,” citing Article 32 of Law 39/2015. While procedural safeguards are welcome, the lack of early transparency around the nature of the incident raised concerns among affected users.

Spain Ministry of Science Cyberattack: Hacker Claims 

Those concerns intensified when a threat actor using the alias “GordonFreeman” appeared on underground forums claiming responsibility for the Spain Ministry of Science cyberattack. The attacker alleged that they exploited a critical Insecure Direct Object Reference (IDOR) vulnerability, granting “full-admin-level access” to internal systems. Data samples shared online—though not independently verified—include screenshots of official documents, email addresses, enrollment applications, and internal records. Spanish media outlet OKDIARIO reported that a ministry spokesperson confirmed the IT disruption was linked to a cyberattack and that the electronic headquarters had been shut down to assess the scope of the data breach. Although the forum hosting the alleged leak is now offline and the data has not resurfaced elsewhere, the screenshots appear legitimate. If confirmed, this would represent a serious breakdown in access control protections.

Alleged Data Exposure Raises Serious Privacy Concerns

According to claims made by the attacker, the stolen data includes highly sensitive information related to students and researchers, such as:
  • Scanned ID documents, NIEs, and passports
  • Email addresses
  • Payment receipts showing IBAN numbers
  • Academic records, including transcripts and apostilled degrees
  • Curricula containing private personal data
If even a portion of this data is authentic, the Spain Ministry of Science cyberattack could expose thousands of individuals to identity theft, financial fraud, and long-term privacy risks. Academic data, in particular, is difficult to replace or invalidate once leaked.

Spain’s Growing Cybercrime Problem

This Spain Ministry of Science cyberattack incident does not exist in isolation. Cybercrime now accounts for more than one in six recorded criminal offenses in Spain. Attacks have increased by 35% this year, with more than 45,000 incidents reported daily. Between late February and early March, attacks surged by 750% compared to the same period last year. During the week of 5–11 March 2025, Spain was the most targeted country globally, accounting for 22.6% of all cyber incidents—surpassing even the United States. Two factors continue to drive this trend. Rapid digital transformation, fueled by EU funding, has often outpaced cybersecurity investment. At the same time, ransomware attacks—up 120%—have increasingly targeted organizations with weak defenses, particularly public institutions and SMEs. The Spain Ministry of Science cyberattack stresses a hard truth, digital services without strong security become liabilities, not efficiencies. As public administrations expand online access, cybersecurity can no longer be treated as a secondary concern or an afterthought. Until Spain addresses systemic gaps in public-sector cybersecurity, incidents like Spain Ministry of Science cyberattack will continue, not as exceptions, but as warnings ignored too long.

AWS Blames Russia’s GRU for Years-Long Espionage Campaign Targeting Western Energy Infrastructure

16 December 2025 at 06:19

Western Critical Infrastructure, Critical infrastructure, Russian GRU, Russian Threat Actor, Sandworm, APT44, Energy Supply Chain, Energy Infrastructure

Amazon Web Services (AWS) has attributed a persistent multi-year cyber espionage campaign targeting Western critical infrastructure, particularly the energy sector, to a group strongly linked with Russia’s Main Intelligence Directorate (GRU), known widely as Sandworm (or APT44).

In a report released Monday, the cloud giant’s threat intelligence teams revealed that the Russian-nexus actor has maintained a "sustained focus" on North American and European critical infrastructure, with operations spanning from 2021 through the present day.

Misconfigured Devices are the Attackers' Gateway

Crucially, the AWS investigation found that the initial successful compromises were not due to any weakness in the AWS platform itself, but rather the exploitation of customer misconfigured devices. The threat actor is exploiting a fundamental failure in network defense, that of, customers failing to properly secure their network edge devices and virtual appliances.

The operation focuses on stealing credentials and establishing long-term persistence, often by compromising third-party network appliance software running on platforms like Amazon Elastic Compute Cloud (EC2).

AWS CISO CJ Moses commented in the report, warning, "Going into 2026, organizations must prioritize securing their network edge devices and monitoring for credential replay attacks to defend against this persistent threat."

Persistence and Credential Theft, Part of the Sandworm Playbook

AWS observed the GRU-linked group employing several key tactics, techniques, and procedures (TTPs) aligned with their historical playbook:

  1. Exploiting Misconfigurations: Leveraging customer-side mistakes, particularly in exposed network appliances, to gain initial access.

  2. Establishing Persistence: Analyzing network connections to show the actor-controlled IP addresses establishing persistent, long-term connections to the compromised EC2 instances.

  3. Credential Harvesting: The ultimate objective is credential theft, enabling the attackers to move laterally across networks and escalate privileges, often targeting the accounts of critical infrastructure operators.

AWS’s analysis of infrastructure overlaps with known Sandworm operations—a group infamous for disruptive attacks like the 2015 and 2016 power grid blackouts in Ukraine—provides high confidence in the attribution.

Recently, threat intelligence company Cyble had detected advanced backdoors targeting the defense systems and the TTPs closely resembled Russia's Sandworm playbook.

Read: Cyble Detects Advanced Backdoor Targeting Defense Systems via Belarus Military Lure

Singular Focus on the Energy Supply Chain

The targeting profile analyzed by AWS' threat intelligence teams demonstrates a calculated and sustained focus on the global energy sector supply chain, including both direct operators and the technology providers that support them:

  • Energy Sector: Electric utility organizations, energy providers, and managed security service providers (MSSPs) specializing in energy clients.

  • Technology/Cloud Services: Collaboration platforms and source code repositories essential for critical infrastructure development.

  • Telecommunications: Telecom providers across multiple regions.

The geographic scope of the targeting is global, encompassing North America, Western and Eastern Europe, and the Middle East, illustrating a strategic objective to gain footholds in the operational technology (OT) and enterprise networks that govern power distribution and energy flow across NATO countries and allies.

From Cloud Edge to Credential Theft

AWS’ telemetry exposed a methodical, five-step campaign flow that leverages customer misconfiguration on cloud-hosted devices to gain initial access:

  1. Compromise Customer Network Edge Device hosted on AWS: The attack begins by exploiting customer-side vulnerabilities or misconfigurations in network edge devices (like firewalls or virtual appliances) running on platforms like Amazon EC2.

  2. Leverage Native Packet Capture Capability: Once inside, the actor exploits the device's own native functionality to eavesdrop on network traffic.

  3. Harvest Credentials from Intercepted Traffic: The crucial step involves stealing usernames and passwords from the intercepted traffic as they pass through the compromised device.

  4. Replay Credentials Against Victim Organizations’ Online Services and Infrastructure: The harvested credentials are then "replayed" (used) to access other services, allowing the attackers to pivot from the compromised appliance into the broader victim network.

  5. Establish Persistent Access for Lateral Movement: Finally, the actors establish a covert, long-term presence to facilitate lateral movement and further espionage.

Secure the Edge and Stop Credential Replay

AWS has stated that while its infrastructure remains secure, the onus is on customers to correct the foundational security flaws that enable this campaign. The report strongly advises organizations to take immediate action on two fronts:

  • Secure Network Edge: Conduct thorough audits and patching of all network appliances and virtual devices exposed to the public internet, ensuring they are configured securely.

  • Monitor for Credential Replay: Implement advanced monitoring for indicators of compromise (IOCs) associated with credential replay and theft attacks, which the threat actors are leveraging to move deeper into target environments.

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