Sunday, July 14, 2024
EHA

Can Open Source Security Prevent Zero-Day Attacks?

A zero-day (or zero-day) vulnerability is a software security risk that is not known to the software vendor or user. A zero-day attack is an attempt by an attacker to gain access to a vulnerable system. This is a serious security threat and has a high success rate because companies typically don’t have defensive measures to detect or block it.

A zero-day attack occurs before the target is aware of the vulnerability. When attackers learn of the vulnerability, they release exploits before developers or vendors create patches to fix vulnerabilities.

Why Is Open Source Security Important?

Open source security refers to the security measures and practices that are put in place to protect open-source software.

When an open source vulnerability is discovered, it becomes an attractive target for attackers to exploit. Details about these open-source vulnerabilities and how to exploit them are often made public. This gives hackers all the information they need to conduct an attack. When you combine this with the widespread use of open-source software, it’s not hard to imagine the chaos that can arise when an open-source vulnerability is discovered.

One of the main challenges organizations face when dealing with open source vulnerabilities is that tracking and resolving vulnerabilities is not trivial. These open source exploits might be published on various platforms and are difficult to track. Also, finding an updated version, patch, or fix to address a security risk is a time-consuming and expensive process.

Once open source vulnerabilities and their exploit vectors are made public, it is only a matter of time before attackers can exploit them to penetrate organizations. Businesses need to integrate multiple tools and processes to quickly address open source vulnerabilities.

Pillars of Open Source Security

Software Composition Analysis

Software Configuration Analysis (SCA) is an automated process for identifying open source software in a codebase. It evaluates security, licensing compliance, and code quality issues.

SCA tools inspect package managers, manifest files, source code, binaries, container images, and more. Identified open source components are compiled into a Bill of Materials (BOM) and compared against various databases such as the National Vulnerability Database (NVD).

SCA tools compare the BOM to other databases to detect licenses in the code, and analyze overall code quality (version control, contribution history, etc.). It can also compare BOMs to vulnerability databases, so security teams can identify and quickly fix critical security vulnerabilities.

The main value of SCA lies in its automation. Manually tracing open source code is not viable in modern software projects, which might have thousands of components. The growing popularity of cloud-native and microservices architectures, and the complexity of applications, requires powerful and reliable SCA tools.

How it can help with zero-day attacks: 

Software composition analysis (SCA) can help organizations to identify and mitigate the risk of zero-day attacks by providing visibility into the third-party software libraries and components that are used in their applications. By performing regular SCA scans, organizations can identify any known vulnerabilities in these components and take steps to address them, such as applying patches or updates or replacing the vulnerable component with a more secure alternative.

In addition to identifying known vulnerabilities, SCA can also help organizations to identify potential zero-day vulnerabilities by providing information about details of the third-party components in use. This can help organizations to make informed decisions about the risk associated with using these components and to take appropriate steps to mitigate that risk.

Digital Forensics and Incident Response (DFIR)

Digital forensics and incident response (DFIR) refer to the processes and techniques used to identify, investigate, and respond to cyber security incidents and attacks:

  • Digital forensics involves the collection, analysis, and presentation of digital evidence for use in a court of law or other legal proceedings. 
  • Incident response involves the identification and resolution of a security incident, such as a data breach or ransomware attack, and may include steps such as isolating affected systems, identifying the cause of the incident, and taking measures to prevent similar incidents from occurring in the future.

DFIR professionals use a variety of tools and techniques to collect and analyze digital evidence, including forensic software, network analysis tools, and data recovery tools. They may also use specialized knowledge and expertise in areas such as computer networks, encryption, and data storage to identify and understand the nature and scope of a security incident.

DFIR is a critical aspect of cyber security, as it allows organizations to identify and respond to security incidents in a timely and effective manner. By having a plan in place for responding to security incidents and having trained professionals who can conduct forensic analysis and incident response, organizations can minimize the impact of a security incident and reduce the risk of future attacks.

How it can help with zero-day attacks: Digital forensics and incident response (DFIR) can play a role in responding to zero-day attacks. DFIR professionals can identify the cause of the attack and understand how the attackers gained access to the system. This can help to inform the response and recovery efforts and prevent similar attacks from occurring in the future.

Vulnerability Management

Vulnerability management is an ongoing process of discovering, prioritizing, and mitigating vulnerabilities in your IT environment. Vulnerability management tools vary in strength and feature set, but most include:

  • Discovery: The process of identifying and classifying all assets in a network environment and storing their properties in a database. This step also includes the discovery of vulnerabilities related to these assets.
  • Prioritization: The process of prioritizing known asset vulnerabilities and risks. Vulnerabilities are assigned severity levels to help identify the most important vulnerabilities.
  • Remediation and mitigation: The system provides links to information about each detected vulnerability. This includes corrective action and vendor patch recommendations where applicable. Most solutions provide links to third-party resources such as the MITRE Corporation’s Common Vulnerabilities and Exposures (CVE) database, the Common Vulnerability Scoring System (CVS), and the SANS/FBI Top 20.

Organizations should address the most severe vulnerabilities first and then the least severe vulnerabilities as time and resources allow. Certain vulnerabilities may not pose a significant threat to an organization and may be acceptable, because the risk is lower than the cost of remediation.

How it can help with zero-day attacks: Vulnerability management can help organizations to mitigate the risk of zero-day attacks by identifying and addressing vulnerabilities in their systems and applications before they can be exploited. By regularly scanning for vulnerabilities and implementing appropriate remediation measures, organizations can reduce the risk of cyber-attacks and protect their systems, data, and users.

Conclusion

Zero-day attacks are a significant threat to the security of computer systems and networks, as they take advantage of previously unknown vulnerabilities that have not yet been patched or fixed. Open-source software, which is freely available and typically developed and maintained through a collaborative, community-driven process, can be vulnerable to zero-day attacks if vulnerabilities are not identified and addressed in a timely manner.

To protect against zero-day attacks, it is important for organizations to implement strong security measures, such as firewalls and intrusion detection systems, and to keep software and security systems up to date. It is also important to have a plan in place for responding to and recovering from a security incident and to have trained professionals who can conduct forensic analysis and incident response.

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