Category: Zero Day

“Zero Day,” a gripping political thriller streaming on Netflix, delves into the far-reaching consequences of a devastating cyber attack. Premiering on February 20, 2025, this six-episode series weaves a complex tale of conspiracy, intrigue, and the dangerous intersections of technology and politics. With its high stakes and compelling narrative, it has all the elements necessary to captivate audiences and establish itself as a must-watch thriller.

The series stars the legendary Robert De Niro, portraying a former President of the United States, as he navigates the fallout from a catastrophic digital assault. Created by Eric Newman, Noah Oppenheim, and Michael Schmidt—known for his work with The New York Times—”Zero Day” explores the devastating impact of cyber warfare, demonstrating how digital attacks can destabilize nations and threaten the lives of ordinary citizens, all driven by political agendas.

Under the direction of Lesli Linka Glatter, the series skillfully balances tension, action, and political commentary. While initially available in English, it is expected that the show will be dubbed into multiple languages for audiences in both developing and developed countries, widening its reach in the near future.

As Netflix has picked up its user base across the world, especially, after it implemented a ban on password sharing policy, in 2022. The customer base has quadrupled in the last two years, says an update released to the media in November 2023.

That said, its important to note that this series is entirely unrelated to the 2003 film Zero Day, which centers around two students planning a school shooting—a movie that ultimately failed to make an impact at the box office. Instead, “Zero Day” offers a fresh perspective on the world of cybercrime and political maneuvering, setting itself apart as a timely and powerful thriller.

The post Zero Day on Netflix explains well about the repercussions of a Cyber Attack appeared first on Cybersecurity Insiders.

Zero-day vulnerabilities are more commonly used, according to the Five Eyes:

Key Findings

In 2023, malicious cyber actors exploited more zero-day vulnerabilities to compromise enterprise networks compared to 2022, allowing them to conduct cyber operations against higher-priority targets. In 2023, the majority of the most frequently exploited vulnerabilities were initially exploited as a zero-day, which is an increase from 2022, when less than half of the top exploited vulnerabilities were exploited as a zero-day.

Malicious cyber actors continue to have the most success exploiting vulnerabilities within two years after public disclosure of the vulnerability. The utility of these vulnerabilities declines over time as more systems are patched or replaced. Malicious cyber actors find less utility from zero-day exploits when international cybersecurity efforts reduce the lifespan of zero-day vulnerabilities.

I’ve been writing about the possibility of AIs automatically discovering code vulnerabilities since at least 2018. This is an ongoing area of research: AIs doing source code scanning, AIs finding zero-days in the wild, and everything in between. The AIs aren’t very good at it yet, but they’re getting better.

Here’s some anecdotal data from this summer:

Since July 2024, ZeroPath is taking a novel approach combining deep program analysis with adversarial AI agents for validation. Our methodology has uncovered numerous critical vulnerabilities in production systems, including several that traditional Static Application Security Testing (SAST) tools were ill-equipped to find. This post provides a technical deep-dive into our research methodology and a living summary of the bugs found in popular open-source tools.

Expect lots of developments in this area over the next few years.

This is what I said in a recent interview:

Let’s stick with software. Imagine that we have an AI that finds software vulnerabilities. Yes, the attackers can use those AIs to break into systems. But the defenders can use the same AIs to find software vulnerabilities and then patch them. This capability, once it exists, will probably be built into the standard suite of software development tools. We can imagine a future where all the easily findable vulnerabilities (not all the vulnerabilities; there are lots of theoretical results about that) are removed in software before shipping.

When that day comes, all legacy code would be vulnerable. But all new code would be secure. And, eventually, those software vulnerabilities will be a thing of the past. In my head, some future programmer shakes their head and says, “Remember the early decades of this century when software was full of vulnerabilities? That’s before the AIs found them all. Wow, that was a crazy time.” We’re not there yet. We’re not even remotely there yet. But it’s a reasonable extrapolation.

EDITED TO ADD: And Google’s LLM just discovered an expolitable zero-day.

Interesting research: “Teams of LLM Agents can Exploit Zero-Day Vulnerabilities.”

Abstract: LLM agents have become increasingly sophisticated, especially in the realm of cybersecurity. Researchers have shown that LLM agents can exploit real-world vulnerabilities when given a description of the vulnerability and toy capture-the-flag problems. However, these agents still perform poorly on real-world vulnerabilities that are unknown to the agent ahead of time (zero-day vulnerabilities).

In this work, we show that teams of LLM agents can exploit real-world, zero-day vulnerabilities. Prior agents struggle with exploring many different vulnerabilities and long-range planning when used alone. To resolve this, we introduce HPTSA, a system of agents with a planning agent that can launch subagents. The planning agent explores the system and determines which subagents to call, resolving long-term planning issues when trying different vulnerabilities. We construct a benchmark of 15 real-world vulnerabilities and show that our team of agents improve over prior work by up to 4.5×.

The LLMs aren’t finding new vulnerabilities. They’re exploiting zero-days—which means they are not trained on them—in new ways. So think about this sort of thing combined with another AI that finds new vulnerabilities in code.

These kinds of developments are important to follow, as they are part of the puzzle of a fully autonomous AI cyberattack agent. I talk about this sort of thing more here.

New paper: “Zero Progress on Zero Days: How the Last Ten Years Created the Modern Spyware Market“:

Abstract: Spyware makes surveillance simple. The last ten years have seen a global market emerge for ready-made software that lets governments surveil their citizens and foreign adversaries alike and to do so more easily than when such work required tradecraft. The last ten years have also been marked by stark failures to control spyware and its precursors and components. This Article accounts for and critiques these failures, providing a socio-technical history since 2014, particularly focusing on the conversation about trade in zero-day vulnerabilities and exploits. Second, this Article applies lessons from these failures to guide regulatory efforts going forward. While recognizing that controlling this trade is difficult, I argue countries should focus on building and strengthening multilateral coalitions of the willing, rather than on strong-arming existing multilateral institutions into working on the problem. Individually, countries should focus on export controls and other sanctions that target specific bad actors, rather than focusing on restricting particular technologies. Last, I continue to call for transparency as a key part of oversight of domestic governments’ use of spyware and related components.

Google has patched another Chrome zero-day:

On Thursday, Google said an anonymous source notified it of the vulnerability. The vulnerability carries a severity rating of 8.8 out of 10. In response, Google said, it would be releasing versions 124.0.6367.201/.202 for macOS and Windows and 124.0.6367.201 for Linux in subsequent days.

“Google is aware that an exploit for CVE-2024-4671 exists in the wild,” the company said.

Google didn’t provide any other details about the exploit, such as what platforms were targeted, who was behind the exploit, or what they were using it for.

Kaspersky researchers are detailing “an attack that over four years backdoored dozens if not thousands of iPhones, many of which belonged to employees of Moscow-based security firm Kaspersky.” It’s a zero-click exploit that makes use of four iPhone zero-days.

The most intriguing new detail is the targeting of the heretofore-unknown hardware feature, which proved to be pivotal to the Operation Triangulation campaign. A zero-day in the feature allowed the attackers to bypass advanced hardware-based memory protections designed to safeguard device system integrity even after an attacker gained the ability to tamper with memory of the underlying kernel. On most other platforms, once attackers successfully exploit a kernel vulnerability they have full control of the compromised system.

On Apple devices equipped with these protections, such attackers are still unable to perform key post-exploitation techniques such as injecting malicious code into other processes, or modifying kernel code or sensitive kernel data. This powerful protection was bypassed by exploiting a vulnerability in the secret function. The protection, which has rarely been defeated in exploits found to date, is also present in Apple’s M1 and M2 CPUs.

The details are staggering:

Here is a quick rundown of this 0-click iMessage attack, which used four zero-days and was designed to work on iOS versions up to iOS 16.2.

  • Attackers send a malicious iMessage attachment, which the application processes without showing any signs to the user.
  • This attachment exploits the remote code execution vulnerability CVE-2023-41990 in the undocumented, Apple-only ADJUST TrueType font instruction. This instruction had existed since the early nineties before a patch removed it.
  • It uses return/jump oriented programming and multiple stages written in the NSExpression/NSPredicate query language, patching the JavaScriptCore library environment to execute a privilege escalation exploit written in JavaScript.
  • This JavaScript exploit is obfuscated to make it completely unreadable and to minimize its size. Still, it has around 11,000 lines of code, which are mainly dedicated to JavaScriptCore and kernel memory parsing and manipulation.
  • It exploits the JavaScriptCore debugging feature DollarVM ($vm) to gain the ability to manipulate JavaScriptCore’s memory from the script and execute native API functions.
  • It was designed to support both old and new iPhones and included a Pointer Authentication Code (PAC) bypass for exploitation of recent models.
  • It uses the integer overflow vulnerability CVE-2023-32434 in XNU’s memory mapping syscalls (mach_make_memory_entry and vm_map) to obtain read/write access to the entire physical memory of the device at user level.
  • It uses hardware memory-mapped I/O (MMIO) registers to bypass the Page Protection Layer (PPL). This was mitigated as CVE-2023-38606.
  • After exploiting all the vulnerabilities, the JavaScript exploit can do whatever it wants to the device including running spyware, but the attackers chose to: (a) launch the IMAgent process and inject a payload that clears the exploitation artefacts from the device; (b) run a Safari process in invisible mode and forward it to a web page with the next stage.
  • The web page has a script that verifies the victim and, if the checks pass, receives the next stage: the Safari exploit.
  • The Safari exploit uses CVE-2023-32435 to execute a shellcode.
  • The shellcode executes another kernel exploit in the form of a Mach object file. It uses the same vulnerabilities: CVE-2023-32434 and CVE-2023-38606. It is also massive in terms of size and functionality, but completely different from the kernel exploit written in JavaScript. Certain parts related to exploitation of the above-mentioned vulnerabilities are all that the two share. Still, most of its code is also dedicated to parsing and manipulation of the kernel memory. It contains various post-exploitation utilities, which are mostly unused.
  • The exploit obtains root privileges and proceeds to execute other stages, which load spyware. We covered these stages in our previous posts.

This is nation-state stuff, absolutely crazy in its sophistication. Kaspersky discovered it, so there’s no speculation as to the attacker.

Google’s Threat Analysis Group announced a zero-day against the Zimbra Collaboration email server that has been used against governments around the world.

TAG has observed four different groups exploiting the same bug to steal email data, user credentials, and authentication tokens. Most of this activity occurred after the initial fix became public on Github. To ensure protection against these types of exploits, TAG urges users and organizations to keep software fully up-to-date and apply security updates as soon as they become available.

The vulnerability was discovered in June. It has been patched.