thunderbird-115.13.0-1.fc40

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FEDORA-2024-a26a9c2150

Packages in this update:

thunderbird-115.13.0-1.fc40

Update description:

Update to 115.13.0

https://www.mozilla.org/en-US/security/advisories/mfsa2024-31/
https://www.thunderbird.net/en-US/thunderbird/115.13.0/releasenotes/

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kubernetes-1.29.7-1.fc40

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FEDORA-2024-30f39c25ae

Packages in this update:

kubernetes-1.29.7-1.fc40

Update description:

Update to v1.29.7 for FC40.

Resolves CVE-2024-5321: Incorrect permissions on Windows containers logs.

Additional bug and regression fixes from upstream.

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USN-6898-2: Linux kernel vulnerabilities

Read Time:4 Minute, 13 Second

Ziming Zhang discovered that the DRM driver for VMware Virtual GPU did not
properly handle certain error conditions, leading to a NULL pointer
dereference. A local attacker could possibly trigger this vulnerability to
cause a denial of service. (CVE-2022-38096)

Gui-Dong Han discovered that the software RAID driver in the Linux kernel
contained a race condition, leading to an integer overflow vulnerability. A
privileged attacker could possibly use this to cause a denial of service
(system crash). (CVE-2024-23307)

It was discovered that a race condition existed in the Bluetooth subsystem
in the Linux kernel when modifying certain settings values through debugfs.
A privileged local attacker could use this to cause a denial of service.
(CVE-2024-24857, CVE-2024-24858, CVE-2024-24859)

Bai Jiaju discovered that the Xceive XC4000 silicon tuner device driver in
the Linux kernel contained a race condition, leading to an integer overflow
vulnerability. An attacker could possibly use this to cause a denial of
service (system crash). (CVE-2024-24861)

Chenyuan Yang discovered that the Unsorted Block Images (UBI) flash device
volume management subsystem did not properly validate logical eraseblock
sizes in certain situations. An attacker could possibly use this to cause a
denial of service (system crash). (CVE-2024-25739)

Several security issues were discovered in the Linux kernel.
An attacker could possibly use these to compromise the system.
This update corrects flaws in the following subsystems:
– ARM64 architecture;
– RISC-V architecture;
– x86 architecture;
– Block layer subsystem;
– Accessibility subsystem;
– Android drivers;
– Bluetooth drivers;
– Clock framework and drivers;
– Data acquisition framework and drivers;
– Cryptographic API;
– DMA engine subsystem;
– GPU drivers;
– HID subsystem;
– I2C subsystem;
– IRQ chip drivers;
– Multiple devices driver;
– VMware VMCI Driver;
– MMC subsystem;
– Network drivers;
– Device tree and open firmware driver;
– PCI subsystem;
– S/390 drivers;
– SCSI drivers;
– Freescale SoC drivers;
– Trusted Execution Environment drivers;
– TTY drivers;
– USB subsystem;
– VFIO drivers;
– Framebuffer layer;
– Xen hypervisor drivers;
– File systems infrastructure;
– BTRFS file system;
– Ext4 file system;
– FAT file system;
– Network file system client;
– Network file system server daemon;
– NILFS2 file system;
– Pstore file system;
– SMB network file system;
– UBI file system;
– Netfilter;
– BPF subsystem;
– Core kernel;
– PCI iomap interfaces;
– Memory management;
– B.A.T.M.A.N. meshing protocol;
– Bluetooth subsystem;
– Ethernet bridge;
– Networking core;
– IPv4 networking;
– IPv6 networking;
– MAC80211 subsystem;
– IEEE 802.15.4 subsystem;
– NFC subsystem;
– Open vSwitch;
– RDS protocol;
– Network traffic control;
– SMC sockets;
– Unix domain sockets;
– eXpress Data Path;
– ALSA SH drivers;
– KVM core;
(CVE-2024-35955, CVE-2024-35805, CVE-2024-26814, CVE-2024-27008,
CVE-2024-26970, CVE-2024-35944, CVE-2024-27013, CVE-2024-35938,
CVE-2024-35853, CVE-2024-35969, CVE-2024-26981, CVE-2024-26929,
CVE-2024-27020, CVE-2024-35885, CVE-2024-35973, CVE-2024-35958,
CVE-2024-26961, CVE-2024-35912, CVE-2024-35890, CVE-2024-35804,
CVE-2024-35813, CVE-2024-27393, CVE-2024-26956, CVE-2024-35915,
CVE-2024-26642, CVE-2024-35847, CVE-2024-26960, CVE-2024-26923,
CVE-2024-35935, CVE-2024-36025, CVE-2024-35898, CVE-2024-26810,
CVE-2024-35809, CVE-2024-26813, CVE-2024-36007, CVE-2024-35817,
CVE-2024-35849, CVE-2024-35819, CVE-2024-35884, CVE-2024-35922,
CVE-2024-36008, CVE-2024-27004, CVE-2024-35902, CVE-2024-26828,
CVE-2024-35791, CVE-2024-35930, CVE-2024-26973, CVE-2024-26984,
CVE-2024-35806, CVE-2024-26629, CVE-2024-26955, CVE-2024-26937,
CVE-2024-27059, CVE-2024-35872, CVE-2024-35978, CVE-2024-26950,
CVE-2024-27018, CVE-2024-35857, CVE-2024-35990, CVE-2024-27437,
CVE-2024-35822, CVE-2024-36020, CVE-2024-26931, CVE-2024-26977,
CVE-2024-26654, CVE-2024-26988, CVE-2024-36005, CVE-2024-26969,
CVE-2024-35960, CVE-2024-27016, CVE-2024-36006, CVE-2024-35936,
CVE-2024-35982, CVE-2024-36029, CVE-2024-27395, CVE-2024-26999,
CVE-2024-35871, CVE-2024-35893, CVE-2024-26925, CVE-2024-26965,
CVE-2024-35933, CVE-2024-35976, CVE-2024-35899, CVE-2024-35852,
CVE-2024-35918, CVE-2024-26951, CVE-2024-27001, CVE-2024-35905,
CVE-2024-35907, CVE-2024-26976, CVE-2024-27000, CVE-2024-35910,
CVE-2024-35950, CVE-2024-26974, CVE-2024-35785, CVE-2023-52488,
CVE-2023-52880, CVE-2024-35877, CVE-2024-35888, CVE-2024-35807,
CVE-2024-35796, CVE-2024-35821, CVE-2024-35854, CVE-2024-27015,
CVE-2024-35823, CVE-2024-35900, CVE-2024-35815, CVE-2024-26966,
CVE-2024-26817, CVE-2024-35896, CVE-2024-27396, CVE-2024-27009,
CVE-2024-35940, CVE-2024-26996, CVE-2024-35825, CVE-2024-35984,
CVE-2024-35886, CVE-2024-27019, CVE-2024-26922, CVE-2024-35989,
CVE-2024-26926, CVE-2024-35988, CVE-2024-26957, CVE-2024-26812,
CVE-2024-35925, CVE-2024-35970, CVE-2024-26989, CVE-2024-26811,
CVE-2024-35895, CVE-2024-26935, CVE-2024-26958, CVE-2024-35855,
CVE-2024-35879, CVE-2024-26993, CVE-2024-35934, CVE-2024-36004,
CVE-2024-35997, CVE-2024-26994, CVE-2023-52699, CVE-2024-35789,
CVE-2024-26964, CVE-2024-26687, CVE-2024-35851, CVE-2024-35897,
CVE-2024-26934)

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Proactive Cyber Defense: The Essential Role of Internal Penetration Testing in the Age of AI

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In the world of cybersecurity, AI-powered threats are creating new challenges for organizations.

AI’s Impact on Cybersecurity Vulnerabilities

AI has changed the cybersecurity landscape, introducing both solutions and new vulnerabilities. Here’s how AI affects cybersecurity and the challenges it brings.

1. Adversarial Attacks AI systems can be tricked by manipulated data, leading to wrong outcomes. Strong defenses are needed to protect AI-driven security systems.

2. Bias and Fairness Concerns AI models can carry biases from their training data, leading to unfair decisions. Ensuring these models are fair is crucial for ethical and legal compliance.

3. Phishing and Deceptive Techniques While AI helps detect phishing, cybercriminals also use AI to create more convincing attacks. This requires new strategies to combat AI-driven phishing.

4. Sophisticated Threat Detection AI improves threat detection but also makes identifying sophisticated attacks harder. Advanced defenses are needed to separate real threats from fake ones.

5. Lack of Explainability Complex AI models can be hard to understand, making it difficult to analyze and respond to threats.

Nature of AI-Powered Threats in Cybersecurity

AI-powered threats are more adaptive and intelligent than traditional threats. They use machine learning to analyze data, identify patterns, and refine attack strategies, making static defenses less effective.

1. Leveraging Machine Learning as a Weapon AI threats use machine learning to adjust their tactics based on the cybersecurity landscape, making their attacks more targeted and successful.

2. Evading Detection by Adapting to Security Measures These threats can learn from security systems and change their behavior to avoid detection, making static defenses ineffective.

3. Excel in Automation and Exhibit High Speed and Scale AI threats can automate attacks on a large scale without human intervention, posing significant challenges for security teams.

4. Employing Sophisticated Deception Techniques AI threats can mimic legitimate behavior, create convincing fake content, and impersonate trusted entities to avoid detection.

5. Circumventing Conventional Security Measures Traditional security measures often fail against dynamic AI threats, requiring adaptive and proactive cybersecurity approaches.

Unique Vulnerabilities Within Internal Systems

Internal systems have unique vulnerabilities like insider threats, misconfigurations, and weak access controls. Addressing these requires understanding internal network architecture and user behavior.

Distinctive Features of Internal Penetration Testing

Internal penetration testing helps organizations improve their cybersecurity by identifying and addressing vulnerabilities in AI systems.

1. Testing AI Models Assess the security of AI models against potential attacks.

2. Securing AI Training Data Ensure AI training data is free from biases and manipulation.

3. AI-Driven Threat Detection Use AI to detect sophisticated threats within the network.

4. Integration with Incident Response Improve incident response plans to handle AI-related security incidents effectively.

Internal penetration testing is crucial for addressing new threats such as:

A. Supply Chain Attacks

Software and hardware supply chain vulnerabilities

B. Zero-Day Vulnerabilities

Attacks on unknown software vulnerabilities

C. AI and Machine Learning Threats

Manipulating AI systems and automated attacks

D. Internet of Things (IoT) Security

Vulnerabilities in connected devices

E. Cloud Security

Misconfigurations and shared responsibility issues

F. Cybersecurity Skills Gap

Shortage of trained professionals

G. Legal and Compliance Challenges

Complying with data protection laws and incident reporting requirements

Mitigation Strategies Used After Internal Penetration

Testing Implementing strong mitigation strategies is key after identifying vulnerabilities through internal penetration testing:
Regular software updates and patch management
User education and training
Multi-factor authentication (MFA)
Continuous monitoring and threat detection
Zero trust security models
Collaboration and information sharing Incident response planning
Vendor risk management
Advanced security technologies

The Significance of Internal Testing in AI Security

Internal testing is essential for securing AI systems:

1. Testing AI Models Evaluate AI algorithms against various attacks.

2. Securing AI Training Data Ensure the integrity of AI training datasets.

3. AI-Driven Threat Detection Use AI for detecting sophisticated threats.

4. Integration with Incident Response Integrate AI-specific measures into incident response plans.

5. Continuous Adaptation of Defense Strategies Regular assessments help stay ahead of emerging vulnerabilities.

Internal Penetration Testing Tools in AI Context

Automated Vulnerability Scanners Quickly identify known vulnerabilities in AI systems.

Manual Testing Approaches Uncover complex vulnerabilities that automated tools might miss.

Specialized Tools for AI-Related Vulnerabilities Assess AI systems for biases and adversarial robustness.

Frequency and Integration of Internal Penetration into Cybersecurity Strategy

Determining Testing Frequency Conduct regular assessments, at least annually, to adapt to evolving threats.

Integrating Internal Penetration Testing into Overall Security Strategies Align testing activities with risk management to effectively address vulnerabilities.

Best Practices for Effective Internal Penetration Testing

Establishing Testing Protocols Define clear procedures to ensure comprehensive testing.

Collaboration with AI Security Measures Work together with AI security teams to address vulnerabilities.

Adapting Internal Testing to AI Advancements: Incorporate AI-driven tools and stay updated on AI threats.

As we navigate the complexities of modern cybersecurity, the importance of internal penetration testing cannot be overstated. Organizations prioritizing this proactive approach will be better equipped to mitigate risks, safeguard sensitive information, and sustain long-term resilience against diverse cyber threats. Investing in thorough internal penetration testing today will pave the way for a more secure and robust cybersecurity posture in the face of AI-driven challenges.

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