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Understanding the Potential of GenAI

Generative AI refers to a subset of artificial intelligence that involves machines creating new content autonomously. Unlike traditional AI systems that rely on predefined rules and data, GenAI models are trained on vast datasets and can generate highly realistic and novel outputs, ranging from images and videos to text and music.

The potential applications of GenAI are numerous and diverse. It can revolutionize content creation, aid in drug discovery, enhance virtual reality experiences, and even assist in designing sustainable cities. However, along with its immense potential, genAI also brings forth unique security challenges that need to be addressed.

GenAI Adoption Security Challenges

There will always be challenges associated with the use of any transformational technology. Generative AI is one of the leading technologies revolutionizing how businesses and their operations function everyday. Listed below are the challenges that arise when GenAI is used inappropriately.

  1. Malicious Use: One of the primary concerns surrounding genAI is its potential for malicious use. Just as any powerful technology can be exploited by bad actors, genAI can be used to create fake news, generate realistic but fabricated images or videos, and even impersonate individuals. This poses significant risks to cybersecurity, political stability, and public trust.
  2. Data Privacy: GenAI models are typically trained on large datasets, which may contain sensitive or personally identifiable information. Ensuring the privacy and security of these datasets is crucial to prevent unauthorized access or misuse of personal data. Moreover, there’s a risk of unintended data exposure if generated content inadvertently reveals confidential information.
  3. Bias and Fairness: Like other AI systems, genAI models can inherit and amplify biases present in the training data. This raises concerns about fairness and equity, particularly in applications such as hiring algorithms or predictive policing. Addressing bias in genAI requires careful curation of training data and ongoing monitoring to mitigate unfair outcomes.
  4. Cybersecurity Risks: GenAI models themselves can be vulnerable to cyber attacks, including adversarial examples that exploit weaknesses in the model’s architecture. Additionally, there’s a risk that malicious actors manipulating or incorrectly using genAI systems can generate content capable of disrupting critical infrastructure, posing significant cybersecurity risks. When used in the right context or with the help of the right facilitator, however, genAI for cybersecurity can prove to be a boon.

Strategies for Safeguarding the Future

While the security concerns associated with genAI adoption are complex and multifaceted, there are several strategies that organizations and policymakers can implement to mitigate these risks:

  1. Robust Governance Frameworks: Establishing comprehensive governance frameworks that govern the development, deployment, and use of genAI systems is essential. These frameworks should include guidelines for data privacy, transparency, accountability, and ethical use of AI technologies.
  2. Transparency and Accountability: Promoting transparency and accountability in genAI development can help build trust and mitigate concerns about bias and fairness. Developers should document their data sources, model architectures, and decision-making processes to enable external scrutiny and accountability.
  3. Data Privacy and Security Measures: Implementing strong data privacy and security measures is critical to protect sensitive information used to train genAI models. This includes data anonymization techniques, encryption protocols, access controls, and regular security audits to identify and mitigate vulnerabilities.
  4. Ethical Use Guidelines: Establishing clear ethical guidelines for the use of genAI can help prevent its misuse for malicious purposes. These guidelines should outline acceptable and unacceptable uses of the technology and incorporate principles such as fairness, transparency, and accountability.
  5. Collaborative Research and Development: Encouraging collaboration among researchers, industry stakeholders, and policymakers can facilitate the responsible development and deployment of genAI. By sharing best practices, insights, and resources, the community can collectively address security concerns and ensure the safe and beneficial integration of genAI into society.

Conclusion

With the adoption of generative AI we can harness its transformative potential, but it’s imperative to prioritize security and mitigate associated risks. By implementing robust governance frameworks, promoting transparency and accountability, safeguarding data privacy, and fostering collaboration, we can confidently navigate the security concerns surrounding genAI adoption. This will pave the way for a future where AI can enhance human capabilities while upholding ethical and societal values.

 

Courtesy:  SourceFuse

 

What caused the great CrowdStrike-Windows meltdown of 2024? History has the answer

When a trusted software provider delivers an update that causes PCs to immediately stop working across the world, chaos ensues. Last week's incident wasn't the first such event. Here's how to make sure it doesn't happen again.
 

Microsoft Windows powers more than a billion PCs and millions of servers worldwide, many of them playing key roles in facilities that serve customers directly. So, what happens when a trusted software provider delivers an update that causes those PCs to immediately stop working?

As of July 19, 2024, we know the answer to that question: Chaos ensues.

In this case, the trusted software developer is a firm called CrowdStrike Holdings, whose previous claim to fame was being the security firm that analyzed the 2016 hack of servers owned by the Democratic National Committee. That's just a quaint memory now, as the firm will forever be known as The Company That Caused The Largest IT Outage In History. It grounded airplanes, cut off access to some banking systems, disrupted major healthcare networks, and threw at least one news network off the air.

Microsoft estimates that the CrowdStrike update affected 8.5 million Windows devices. That's a tiny percentage of the worldwide installed base, but as David Weston, Microsoft's Vice President for Enterprise and OS Security, notes, "the broad economic and societal impacts reflect the use of CrowdStrike by enterprises that run many critical services." According to a Reuters report, "Over half of Fortune 500 companies and many government bodies such as the top U.S. cybersecurity agency itself, the Cybersecurity and Infrastructure Security Agency, use the company's software."

 

CrowdStrike, which sells security software designed to keep systems safe from external attacks, pushed a faulty "sensor configuration update" to the millions and millions of PCs worldwide running its Falcon Sensor software. That update was, according to CrowdStrike, a "Channel File" whose function was to identify newly observed, malicious activity by cyberattackers.

Although the update file had a .sys extension, it was not itself a kernel driver. But it communicates with other components in the Falcon sensor that run in the same space as the Windows kernel, the most privileged level on a Windows PC, where they interact directly with memory and hardware. CrowdStrike says a "logic error" in that code caused Windows PCs and servers to crash within seconds after they booted up, displaying a STOP error, more colloquially known as the Blue Screen of Death.

 

Repairing the damage from a flaw like this is a painfully tedious process that requires manually rebooting every affected PC into the Windows Recovery Environment and then deleting the defective file from the PC using the old-school command line interface. And if the PC in question has its system drive protected by Microsoft's BitLocker encryption software, as virtually all business PCs do, the fix requires one extra step: entering a unique 48-character BitLocker recovery key to gain access to the drive and allow removal of the faulty CrowdStrike driver.

 

Surprisingly, this isn't the first faulty Falcon Sensor update from CrowdStrike this year.

Less than a month earlier, according to a report from The Stack, CrowdStrike released a detection logic update for the Falcon sensor that exposed a bug in the sensor's Memory Scanning feature. "The result of the bug," CrowdStrike wrote in a customer advisory, "is a logic error in the CsFalconService that can cause the Falcon sensor for Windows to consume 100% of a single CPU core." The company rolled back the update, and customers were able to resume normal operations by rebooting.

Source : ZDnet 

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