Clickjacking Malware in SVG Files Targets Facebook Likes

I’m thrilled to sit down with Dominic Jainy, a seasoned IT professional whose deep expertise in artificial intelligence, machine learning, and blockchain offers a unique perspective on emerging cybersecurity threats. With a passion for exploring how cutting-edge technologies intersect with various industries, Dominic is the perfect person to help us unpack a particularly sneaky cyberattack involving clickjacking malware hidden in SVG files on adult websites. In this conversation, we’ll dive into the mechanics of these attacks, the risks they pose to unsuspecting users, the clever ways attackers evade detection, and the broader implications for online safety.

How did you first come across the issue of clickjacking malware, and what makes it such a sneaky threat in the context of adult websites?

I’ve been tracking social engineering attacks for years, and clickjacking malware caught my attention due to its deceptive nature. It’s a technique where attackers trick users into clicking on something that seems harmless, like an image, but it triggers actions they didn’t intend. On adult websites, it’s particularly insidious because these platforms often rely on user curiosity and impulsive behavior. Attackers exploit that by embedding malicious code in seemingly innocent content, knowing that users may not be as cautious in those environments.

Can you break down what happens to a user’s device or social media account when they fall victim to a clickjacking attack like this?

Absolutely. When a user clicks on a compromised element, such as an SVG image laced with malware like Trojan.JS.Likejack, it can execute hidden scripts. These scripts might hijack an active social media session, such as on Facebook, and perform actions like “liking” posts without the user’s knowledge. Beyond that, it can potentially log keystrokes or steal session cookies, giving attackers access to personal accounts or sensitive data on the device.

What is it about SVG files that makes them a unique and dangerous tool for cybercriminals compared to other image formats?

Unlike JPEG or PNG files, which are static, SVG files are based on XML and can contain interactive elements like HTML and JavaScript. This makes them incredibly versatile for web design, but also a perfect vehicle for malicious code. Attackers can embed scripts directly into the file, and since many systems don’t flag SVGs as dangerous by default, they often slip past basic security checks.

How exactly do attackers manage to hide malicious code within these SVG files to avoid detection?

One common trick is obfuscation, where the code is scrambled to look like gibberish to both humans and some security tools. A technique called “JSFuck” is often used, which rewrites JavaScript into a form that uses only a handful of characters, making it hard to decipher without specialized analysis. Once the user interacts with the file, the code unravels and executes, downloading additional payloads or triggering unwanted actions.

Can you explain the specific mechanics of Trojan.JS.Likejack and what its ultimate goal is for attackers?

Trojan.JS.Likejack is designed to exploit open social media sessions. When a user clicks on a rigged SVG, the malware checks for an active Facebook session. If it finds one, it silently “likes” targeted posts to boost their visibility. The end goal for attackers is often to amplify content—whether it’s propaganda, scams, or explicit material—to reach a wider audience, turning victims into unwitting promoters and potentially driving revenue or influence through increased engagement.

How widespread do you believe this issue is, and are there certain groups or platforms more vulnerable to these attacks?

It’s more common than many realize. Research has identified dozens of adult websites hosting these malicious SVG files, often interconnected and hosted on less-regulated platforms. Users who seek out niche or less reputable sites, especially in regions with new age-verification laws pushing them to unregulated spaces, are particularly at risk. It’s not just about adult content, though—any platform where users are less cautious can become a target.

Looking back, can you share an example of how SVG files have been weaponized in past cyberattacks?

One notable case was a couple of years ago when pro-Russian hackers exploited SVG files in a cross-site scripting attack against Roundcube, a popular webmail platform. They embedded malicious code in SVG attachments that, when viewed, could compromise user sessions. More recently, phishing scams have used SVGs to display fake login pages, like counterfeit Microsoft sign-in screens, pre-filled with a victim’s email to trick them into entering passwords.

What steps can users take to protect themselves from falling victim to these kinds of hidden malware attacks?

First, awareness is key—be cautious about what you click, especially on less-regulated websites. Use updated security software that can detect suspicious domains or scripts before they execute. A properly configured firewall helps, as does real-time protection to catch threats in the act. While VPNs can mask your location, they’re not a substitute for strong endpoint security. Above all, knowing that certain file types like SVG can run code is half the battle.

What is your forecast for the future of clickjacking and similar social engineering attacks as technology continues to evolve?

I think we’ll see these attacks become even more sophisticated as attackers leverage emerging tech like AI to craft hyper-personalized bait or automate obfuscation techniques. As more platforms tighten security, attackers will likely shift to exploiting less obvious file formats or integrating malware into seemingly legitimate content. It’s a cat-and-mouse game, and staying ahead will require both better tech defenses and greater user education to break the cycle of exploitation.

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