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Escalation in Oropouche Virus Activity and Travel-Related Risks

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Escalation in Oropouche Virus Activity and Travel-Related Risks

The Centers for Disease Control and Prevention (CDC) is issuing this Health Advisory to inform healthcare professionals and public health authorities of the rising incidence of Oropouche virus disease in the Americas, with origins in endemic zones within the Amazon basin, and now spreading to new territories in South America and the Caribbean. From January 1 to August 1, 2024, over 8,000 cases of Oropouche virus disease have been documented, including two fatalities and five instances of vertical transmission leading to fetal death or congenital defects. Nations reporting cases include Brazil, Bolivia, Peru, Colombia, and Cuba. Travel-related cases have also been detected in the United States and Europe, primarily among travelers returning from Cuba and Brazil. As Oropouche virus testing and surveillance increase throughout the Americas, it is anticipated that additional countries will report cases. This advisory provides guidance for evaluating and testing travelers from affected regions who exhibit symptoms consistent with Oropouche virus infection. It also underscores the potential risk of vertical transmission during pregnancy and associated adverse outcomes, while highlighting preventive measures to curb the spread of the virus and avert its introduction into unaffected regions, including the United States.

Background
Oropouche virus is part of the Simbu serogroup within the Orthobunyavirus genus, Peribunyaviridae family. First identified in 1955 in Trinidad and Tobago, the virus is endemic to the Amazon basin. Previous outbreaks have occurred in Bolivia, Brazil, Colombia, Ecuador, French Guiana, Panama, and Peru. A singular case was reported in Haiti in 2014. The ongoing outbreak in 2024 is affecting both endemic and new regions outside the Amazon basin, with locally acquired cases now recorded in Brazil, Bolivia, Peru, Colombia, and Cuba. Although travel-related cases have surfaced in the United States, no evidence of local transmission has been observed within U.S. territories.

Sylvatic enzootic transmission of Oropouche virus takes place in forested areas through interactions between mosquitoes and non-human vertebrate hosts such as sloths, non-human primates, domestic and wild birds, and rodents. Humans can contract the virus while visiting forested areas, likely introducing it into urban settings. Infected individuals can serve as amplifying hosts due to sufficient viremia levels, facilitating transmission in urban environments through biting midges (Culicoides paraensis) and potentially certain mosquito species (Culex quinquefasciatus).

Approximately 60% of individuals infected with Oropouche virus develop symptoms. The incubation period typically ranges from 3 to 10 days. Initial clinical presentations resemble those of diseases caused by dengue, Zika, and chikungunya viruses, with acute onset of fever, chills, headache, myalgia, and arthralgia. Other symptoms may include retro-orbital eye pain, photophobia, nausea, vomiting, diarrhea, fatigue, maculopapular rash, conjunctival injection, and abdominal pain. Clinical laboratory findings may show lymphopenia, leukopenia, elevated C-reactive protein (CRP), and slightly elevated liver enzymes. Initial symptoms generally subside after a few days, but around 70% of patients experience recurrent symptoms days to weeks after initial recovery. While the disease is typically mild, an estimated 5% of patients may develop hemorrhagic manifestations (e.g., epistaxis, gingival bleeding, melena, menorrhagia, petechiae) or neuroinvasive disease (e.g., meningitis, meningoencephalitis). Neuroinvasive disease symptoms may include severe occipital pain, dizziness, confusion, lethargy, photophobia, nausea, vomiting, nuchal rigidity, and nystagmus. Clinical laboratory findings for neuroinvasive cases include pleocytosis and elevated protein in cerebrospinal fluid (CSF).

Individuals at greater risk for severe Oropouche virus disease are not well-defined, though risk factors likely mirror those for severe disease from other vector-borne viral infections (e.g., individuals aged 65 or older, or those with underlying medical conditions such as immunosuppression, hypertension, diabetes, or cardiovascular disease). Earlier in 2024, Brazil reported two fatalities in otherwise healthy non-pregnant women, along with five cases in pregnant individuals involving vertical transmission of the virus to the fetus, leading to fetal death or congenital abnormalities, including microcephaly. These were the first reported instances of death and adverse birth outcomes linked to Oropouche virus vertical transmission.

Diagnosis
Laboratory diagnosis is typically achieved through serum testing, with cerebrospinal fluid also testable in patients exhibiting signs of neuroinvasive disease. Diagnostic testing is accessible at certain public health laboratories (e.g., Wadsworth Center, NYS Department of Health) and the CDC. Additional diagnostic assays are under validation at the CDC and other public health laboratories. Healthcare providers are encouraged to contact their respective state, tribal, local, or territorial health department for further information and assistance with testing. For the latest testing and case reporting guidelines, visit the CDC’s website.

Co-Infection with Dengue Virus
In many regions, dengue outbreaks are occurring concurrently with Oropouche virus transmission. For patients suspected of Oropouche virus disease, ruling out dengue virus infection is crucial, as proper clinical management of dengue can significantly improve health outcomes. Other diagnostic considerations include chikungunya, Zika, leptospirosis, malaria, and infections caused by various bacterial or viral pathogens (e.g., rickettsia, group A streptococcus, rubella, measles, parvovirus, enteroviruses, adenovirus, Mayaro virus).

Treatment
There are no specific antiviral treatments or vaccines available for Oropouche virus disease. Symptomatic treatment may include rest, hydration, and the use of analgesics and antipyretics, with acetaminophen being the preferred first-line treatment for fever and pain. Aspirin and other non-steroidal anti-inflammatory drugs (NSAIDs) should be avoided to reduce the risk of hemorrhage. Patients with more severe symptoms should be hospitalized for close monitoring and supportive care. Pregnant individuals with laboratory-confirmed Oropouche virus infection should be closely monitored during pregnancy, and newborns should be carefully evaluated.

Preventive Measures
Travelers to areas with Oropouche virus transmission should employ preventive measures to avoid exposure to biting midges and mosquitoes during travel and for three weeks after travel or if infected, during the first week of illness. These measures are critical to preventing further spread of the virus and its potential introduction into unaffected areas in the United States. Although Oropouche virus disease is not a nationally notifiable condition, the CDC encourages jurisdictions to voluntarily report cases to ArboNET, the national arboviral disease surveillance system.

Recommendations for Healthcare Providers

  • Consider Oropouche virus infection in patients who have visited areas with known or suspected Oropouche virus circulation within two weeks of symptom onset, particularly if symptoms include abrupt onset of fever, headache, myalgia, arthralgia, photophobia, retro-orbital pain, or signs of neuroinvasive disease (e.g., stiff neck, altered mental status, seizures, limb weakness, CSF pleocytosis).
  • Ensure the absence of respiratory symptoms (e.g., cough, rhinorrhea, shortness of breath).
  • Test patients for other possible diseases, especially dengue, but do not delay contacting the relevant health department if Oropouche virus is strongly suspected.
  • Rule out dengue virus infection in travelers with suspected Oropouche virus disease, as co-circulation with similar clinical presentations is common.
  • Be aware that a high proportion of patients (approximately 70%) may experience recurrent symptoms days to weeks after initial recovery.
  • Monitor pregnancies in individuals with laboratory-confirmed Oropouche virus infection and conduct thorough evaluations of infants.
  • Counsel pregnant travelers on the risks associated with visiting areas with reported Oropouche virus transmission and recommend reconsidering non-essential travel.
  • Manage travelers with suspected Oropouche virus disease using acetaminophen as the preferred first-line treatment for fever and pain; avoid the use of aspirin and other NSAIDs.
  • Advise travelers to areas with Oropouche virus transmission to take precautions against insect bites during travel and for three weeks afterward, or if infected, during the first week of illness to prevent further spread.

Recommendations for Health Departments

  • Disseminate Oropouche virus prevention messages to healthcare providers, travel health clinics, and the public.
  • Conduct surveillance for Oropouche virus disease cases in travelers from areas with virus transmission, and remain vigilant for potential local transmission in areas where biting midges and mosquitoes are active.
  • Stay updated on the CDC’s evolving testing and case reporting guidance.
  • Assist healthcare providers with obtaining appropriate diagnostic testing for Oropouche virus infection.
  • Voluntarily report confirmed and probable Oropouche virus infections to the CDC via ArboNET, the national surveillance system for arbovirus-borne diseases.
  • Contact the CDC at eocevent495@cdc.gov if there is concern about local transmission in non-endemic areas.

Recommendations for Travelers

  • All travelers can protect themselves from Oropouche, dengue, Zika, and other insect-borne viruses by preventing insect bites, including the use of Environmental Protection Agency (EPA)-registered insect repellents, wearing long-sleeved clothing, and staying in accommodations
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Morocco Sets Sights on 70% 5G Coverage by 2030 With New License Launch

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Morocco Sets Sights on 70% 5G Coverage by 2030 With New License Launch

RABAT — July 26, 2025
In a landmark step toward digital transformation, Morocco’s National Telecommunications Regulatory Agency (ANRT) has officially launched the bidding process for 5G licenses, inviting national and international telecom operators to help deliver 25% population coverage by 2026 and 70% by 2030.

5G Strategy to Power FIFA World Cup and Beyond

The initiative aligns with Morocco’s preparations to co-host the 2030 FIFA World Cup and its broader Maroc Digital 2030 agenda. “This is about more than faster networks—it’s about our national future,” said Driss El Yazami, policy advisor at the Ministry of Digital Transition.

Highlights of the 5G Deployment Plan

  • Initial rollouts in Casablanca, Rabat, Marrakech, and Tangier
  • Smart infrastructure integration in stadiums and airports
  • Spectrum allocation in 3.5GHz and mmWave bands
  • Coverage expansion to underserved rural regions

From Urban Startups to Rural Farmers: 5G’s National Reach

5G is expected to revolutionize Moroccan society. Students will gain access to virtual classrooms, remote clinics will offer telemedicine, and farmers can deploy smart sensors. “Connectivity is empowerment,” said Amina El Mahdi, a tech entrepreneur in Fez.

Economic Impact and Cybersecurity Measures

The Ministry of Finance predicts 5G will boost GDP by 1.5% by 2030. All operators must meet strict cybersecurity, data localization, and interoperability standards monitored by ANRT and the National Cybersecurity Directorate.

2030 World Cup: Smart Stadiums and Global Broadcasts

With over 1.5 million visitors expected, 5G will support crowd management, mobile ticketing, HD broadcasts, and fan engagement zones across Moroccan host cities.

5G infrastructure being deployed in Morocco’s major cities ahead of FIFA 2030.

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Critical Cyber Breach in Tunisia: Government Systems and Banks Hacked, Confidential Data for Sale

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Critical Cyber Breach in Tunisia: Government Systems and Banks Hacked, Confidential Data for Sale

Tunis, July 2025 — In an alarming escalation of cyber threats across North Africa, Tunisia has become the latest victim of a highly organized and devastating cyberattack. Orchestrated by Moroccan threat actor Jokeir 07x, in partnership with the groups Dark Hell 07x and Dr. Shell 08x, the operation has compromised critical national infrastructure—from government domains to private financial institutions.

“This is not just a defacement campaign—it’s full infrastructure penetration,” declared Jokeir 07x on Telegram.

The targets include the Ministry of Finance, Bank of Tunisia, BTK, and the Tunisian Academy of Banking and Finance, among others. The attackers claim full access to internal systems, including emails, financial records, developer platforms, and sensitive citizen data.


🏛️ Government Domain Breached: Ministry of Finance

The domain finances.gov.tn was infiltrated through 16 high-risk subdomains such as auth., gitlab.intra., mail., and login-tej. According to hacker statements, these allowed access to:

  • Internal recruitment systems
  • Budgetary information
  • Developer repositories
  • Administrative emails

This level of penetration indicates control over Tunisia’s digital authentication infrastructure and DevOps environment, raising severe concerns for national cybersecurity.


🏦 Banking Sector Compromised and Data Sold

Several banks were also impacted:

  • Bank of Tunisia (bt.com.tn):
    • Full customer database allegedly available for $4,000
    • Individual bank accounts offered at $100
    • 5-account bundles sold for $450
  • BTK Bank (btknet.com) and Academy of Banking and Finance (abf.tn) also suffered complete breaches, including control over the sites and underlying systems.

The incident signals not just a data breach but the active commercialization of sensitive financial information on the dark web.


🔍 Technical Breakdown: How It Happened

Cybersecurity analysts have pointed to multiple failure points within Tunisia’s digital infrastructure:

  • Web Application Vulnerabilities:
    • SQL Injection
    • File Upload flaws
    • XSS
    • Remote File Inclusion (RFI)
  • SSO and Mail System Exploitation:
    • Session hijacking likely
    • Weak session/cookie management
  • GitLab Exposure:
    • Unauthorized access to internal GitLab revealed API tokens, credentials, and system architecture
  • Lack of Security Infrastructure:
    • No evidence of WAF, IDS, or SIEM defense
    • No active monitoring or response systems
  • Inadequate Data Protection:
    • Absence of encryption, data masking, or tokenization
    • Entire banking datasets available in plain text

⚠️ The Fallout: Trust, Security, and Reputation

This attack lays bare the vulnerabilities in Tunisia’s cyber defenses, damaging public trust in both government institutions and the banking sector. The country’s financial and administrative data has now surfaced on international black markets, with potential long-term repercussions for national security and economic stability.


💡 Urgent Recommendations for Recovery and Reform

Cybersecurity professionals are urging Tunisia to immediately:

  • Establish internal SOC (Security Operations Centers)
  • Mandate routine penetration testing
  • Enforce multi-factor authentication (MFA)
  • Implement end-to-end data encryption
  • Audit and secure GitLab instances
  • Conduct staff training on social engineering threats
  • Deploy real-time code and data monitoring

“Being hacked is not the shame—failing to learn from it is,” noted a Tunisian cybersecurity analyst. “The future belongs to those who invest in digital resilience, not legacy infrastructure.”

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Cloud Wars 2025: Full Breakdown of Azure, AWS, and Google Cloud Services You Need to Know

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Cloud Wars: Breaking Down the Giants

In today’s digital-first world, cloud computing isn’t just a trend—it’s the backbone of enterprise IT. Whether you’re a startup deploying an app or a global corporation migrating legacy systems, choosing the right cloud provider can make or break your operations. A newly circulated Cloud Services Comparison Cheatsheet provides an invaluable visual breakdown of offerings from Microsoft Azure, Amazon Web Services (AWS), and Google Cloud Platform (GCP), the three dominant players in the cloud arena.


Technical Deep Dive: Key Service Categories Compared

This infographic categorizes over 25 essential cloud services and maps each across Azure, AWS, and GCP equivalents. Here’s what stands out:

1. Compute Services

These services provide scalable virtual server environments, with options for predefined or custom machine types. Azure and AWS offer more mature ecosystems with hybrid cloud integrations, while GCP emphasizes fast boot times and sustained-use discounts.

2. Object Storage

All three services allow you to store large amounts of unstructured data. AWS S3 is known for its advanced features (like S3 Glacier), while Azure Blob integrates well with Microsoft services, and GCP offers multi-regional redundancy by default.

3. Serverless Computing

Serverless solutions allow developers to execute code without managing servers. AWS Lambda leads in ecosystem maturity, while Azure and Google offer solid integrations with their respective developer tools.

4. Content Delivery Networks (CDNs)

  • Azure CDN, AWS CloudFront, and Google Cloud CDN
    All three platforms offer global distribution of content to reduce latency. AWS CloudFront is widely adopted in large-scale enterprise environments, while Google leverages its backbone network to deliver high-speed content.

Security & Identity Management

Cloud security remains a priority as data breaches and compliance requirements escalate.

  • Identity and Access Management (IAM) is offered across platforms with Azure Active Directory, AWS IAM, and Google Cloud IAM.
  • Key Management Services (KMS) ensure secure handling of encryption keys across all three.
  • Compliance tools like Azure Trust Center, AWS Cloud HSM, and Google Cloud Security help enterprises adhere to global regulations like GDPR, HIPAA, and ISO/IEC.

Specialized Services: AI, Containers, and Analytics

  • Analytics: Azure Stream Analytics, Amazon Kinesis, and Google Dataflow enable real-time data processing.
  • Containers: Azure Kubernetes Service (AKS), Amazon EKS, and Google Kubernetes Engine (GKE) support modern container orchestration.
  • Automation: Each provider supports automation—Azure with Azure Automation, AWS with OpsWorks, and GCP with Deployment Manager.

Notable Differences

Some categories reveal gaps:

  • Google Cloud lacks direct equivalents for services like DNS management (Route 53, Azure DNS) or cloud notifications (AWS SNS, Azure Notification Hub).
  • Azure leads in hybrid cloud features due to its integration with Windows Server and on-prem tools.
  • AWS offers the broadest service portfolio, making it ideal for complex multi-cloud or global enterprise setups.

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