ThreatQuotient and Infoblox recently hosted a webinar, where they demonstrated how the combination of DNS Intel and the use of a Threat Intelligence Platform (TIP) help to improve threat detection and response capabilities. Infoblox specializes in DNS Intelligence where their internal experts analyze, process and qualify DNS intelligence (analyzing around 70 billion DNS requests). The results of these analyses provide customers with an enriched, qualified and reliable source of information.

The ransomware, malware and phishing attacks going on in the healthcare industry are quite alarming these days. The customers' data in the healthcare industry is more sensitive than in most industries, and this has proven to be a sweet spot for threat actors. Recent research by Infloblox reported that in 2022, there were over 546 major data breaches due to malicious activity. This follows a 4% increase over the 521 major data breaches reported by healthcare institutions in 2023.

Since the Domain Name System (DNS) protocol is foundational for internet functionality, DNS traffic is allowed to move through firewalls without much scrutiny unlike HTTPS, FTP and SMTP. Malicious actors have successfully been able to exploit this advantage to transfer data between networks, which is beyond the original intention of DNS protocol.

In my previous blog on Kubernetes security foundations, we discussed the growing adoption of cloud-native applications and the security challenges they present. We highlighted the limitations of traditional network firewalls in securing these applications and emphasized the importance of implementing cloud-native security policies to protect network traffic effectively.

One of the common concerns about migrating applications to Kubernetes is the control over the network traffic egressing your environment. Due to its highly dynamic architecture, Kubernetes will not tie a specific IP address to an application by default. Instead, it will lease a different IP address from an IP pool whenever the application restarts.

Oh no! You’ve been hacked, and you have experts onsite to identify the terrible things done to your organization. It doesn’t take long before the beardy dude or cyber lady says, “Yeah...they used DNS to control compromised hosts and then exfiltrated your data.” As you reflect on this event, you think, “Did I even have a chance against that kind of attack?” Yes, you did because Splunk can be used to detect and respond to DNS exfiltration.

A subdomain is a prefix added to a domain name to separate a section of your website. It’s a part of the Domain Name System (DNS) hierarchy and is a domain that is a part of another (main) domain. Subdomains are primarily used to manage extensive sections of a web application that require their own content hierarchy, such as online stores, blogs, job boards, or support platforms.

A DNS server is an integral part of an AD environment. Simple yet crucial activities are accomplished using DNS servers, such as authenticating, searching for computers, and identifying domain controllers. But attackers know there are a lot of loopholes in DNS that they can exploit. And, they often already know about these vulnerabilities. In this blog, you will learn how attackers can abuse.

Have you ever typed in a website’s address and ended up somewhere completely different? Or received emails from what appears to be a familiar company, but with suspicious links that lead to unfamiliar pages? These scenarios may be the result of DNS spoofing, a type of cyber-attack that can leave your sensitive information vulnerable. In this blog post, we’ll dive into what DNS spoofing is, how it works, who is at risk, and most importantly – how you can prevent it.