UAT-10147 Uses AI to Scale Server Attacks, Deploys SPECTRE With EDR Bypass and Linux Rootkit
Cisco Talos exposes UAT-10147, a Chinese-speaking group using AI tools to automate intrusions, deploy SPECTRE, BadIIS, and rootkits against web servers worldwide.
Cisco Talos detailed UAT-10147, a Chinese-speaking cybercrime group conducting SEO fraud and data theft against Windows and Linux web servers in education, media, technology, and gaming sectors, with most victims in Brazil, Bolivia, China, Canada, and Vietnam. The actor exploits publicly disclosed vulnerabilities for initial access, including Zimbra (CVE-2022-27925) and Alibaba Nacos (CVE-2021-29441), and abuses Linux LPE flaws like CVE-2022-0847 and CVE-2021-3156 for root. Its toolset includes AI-assisted frameworks DeepAudit and PentestGPT, plus implants such as SPECTRE, BadIIS, Quasar RAT, Gh0stCringe, and Noodle RAT. An exposed directory contained a target list of roughly 170,000 URLs, with the US, India, UK, Germany, and Netherlands as top destinations.
- Target list of ~170,000 URLs found on an exposed open directory
- Uses AI tools PentestGPT and DeepAudit for scanning, exploit refinement, and post-exploitation
- Deploys EfsPotato privilege escalation, Defender exclusions, and a scheduled task named Google Chrome Start
- BadIIS operates as malware-as-a-service shared by multiple Chinese-speaking groups
- Exfiltration routed through a legitimate cloud configuration service to blend with admin traffic
Vulnerabilities mentionedAll →
| CVE | Vulnerability | CVSS | EPSS | Flags | Affected | Exposure | Published |
|---|---|---|---|---|---|---|---|
| CVE-2010-3904 | Local Privilege Escalation in Linux Kernel RDS Implementation Linux Kernel contains an improper input validation flaw (CWE-20) in its Reliable Datagram Sockets (RDS) protocol implementation, which mishandles data passed through the sendmsg and recvmsg system calls. A local user who can create an RDS socket and issue crafted sendmsg/recvmsg calls triggers the flaw and corrupts kernel memory. Successful exploitation yields local privilege escalation, allowing an unprivileged user to execute code with elevated (root) privileges. Any Linux system whose kernel includes RDS support is affected, though specific version ranges are not provided in the available data, and exploitation requires an attacker to already have some local foothold on the machine. CISA added CVE-2010-3904 to the Known Exploited Vulnerabilities catalog on 2023-05-12, confirming active exploitation (ransomware use unknown); EPSS estimates a 14.6% probability of exploitation in the next 30 days (96th percentile), and no public proof-of-concept is catalogued. Do: Install your distribution's updated kernel packages containing the RDS input-validation fix (vendors have long backported this patch) and reboot into the patched kernel. Verify whether RDS is present and loadable (e.g., check 'lsmod | grep rds' and /proc/net/rds) and restrict unprivileged local shell access, since exploitation requires local code execution. Per CISA's KEV required action, the impacted product is end-of-life, so disconnect or decommission systems still running unpatched/EOL kernels, and monitor for Linux-targeting campaigns such as UAT-10147, which deploys EDR bypass and Linux rootkits that pair naturally with local privilege escalation flaws. | — | 15% | KEV |
| massmillions of Linux installations potentially affected historically; current unpatched exposure likely in the 100k-1M+ range, concentrated in legacy/EOL systems | |
| CVE-2015-3246 | Race Condition in Red Hat libuser Allows Local Privilege Escalation CVE-2015-3246 is a race condition in Red Hat's libuser, the user-management library used by utilities that modify system accounts, that can cause corruption of the /etc/passwd file during concurrent account updates. An authenticated local user who triggers the race — typically by racing account-modification operations against one another — can desynchronize or corrupt the passwd file. Successful exploitation yields either a denial-of-service condition on the host or, in the privilege-escalation case, elevated (root-level) access by manipulating entries in /etc/passwd. Any Red Hat system shipping the vulnerable libuser library is affected, with risk concentrated on multi-user servers where untrusted local accounts exist. The flaw was added to CISA's Known Exploited Vulnerabilities catalog on 2026-08-26, indicating it is being exploited in the wild, and EPSS assigns it an 8.8% probability of exploitation within 30 days (95th percentile); ransomware use is unknown and no public proof-of-concept is cataloged. Do: Update libuser to the fixed packages provided in Red Hat's security advisories across all RHEL/Fedora systems, prioritizing multi-user servers and any asset with untrusted local accounts, in line with CISA BOD 26-04 requirements (apply vendor mitigations or discontinue use of the product where mitigation is unavailable). Because exploitation requires local credentials, review which systems expose local login to non-administrators and check the integrity of /etc/passwd for signs of tampering. Confirm the patched library is active after update and monitor for further KEV-driven deadlines. | — | 9% | KEV |
| masson the order of millions of Red Hat Enterprise Linux/Fedora installations (libuser ships as a default user-management component) | |
| CVE-2015-5287 | Local Privilege Escalation via Symlink Attack in Red Hat ABRT CVE-2015-5287 is a privilege escalation flaw in Red Hat's Automatic Bug Reporting Tool (ABRT) in which a local user with certain permissions can gain elevated privileges via a symlink attack against a file with a predictable name. Exploitation requires local access to an affected system; an attacker who triggers the flawed file-handling behavior can elevate their privileges on that machine. It affects deployments running ABRT, which ships by default with Red Hat Enterprise Linux and related distributions, including systems that may now be end-of-life or end-of-service. CISA added the flaw to its Known Exploited Vulnerabilities catalog on 2026-08-26, indicating exploitation has been observed in the wild, though no public proof-of-concept is known and ransomware use is unknown. EPSS estimates a 5.0% probability of exploitation within 30 days (92nd percentile). Do: Prioritize remediation per CISA BOD 26-04: inventory systems running ABRT (including EoL/EoS hosts), apply the updated abrt packages from Red Hat's security advisories, and migrate unsupported releases to a supported version. Where patching is not feasible, restrict local access to affected systems or disable/remove ABRT if it is not needed. Assess each asset's internet exposure and local user access, and triage per CISA's Forensics Triage Requirements. | — | 5% | KEV |
| masson the order of millions of installations (ABRT is installed by default on RHEL/CentOS/Fedora systems) | |
| CVE-2019-18935 | Unauthenticated .NET Deserialization RCE in Progress Telerik UI for ASP.NET AJAX CVE-2019-18935 is a .NET deserialization flaw (CWE-502) in the RadAsyncUpload function of Progress Telerik UI for ASP.NET AJAX through version 2019.3.1023. It is triggered when an attacker who knows the Telerik upload encryption keys — most commonly because the earlier flaws CVE-2017-11317 or CVE-2017-11357 exposed them, though keys can be obtained by other means — sends crafted serialized data to RadAsyncUpload, allowing remote code execution without authentication. Successful exploitation gives an attacker arbitrary code execution on the hosting IIS/ASP.NET web server, reflected in the critical 9.8 CVSS score. Any web application built with Telerik UI for ASP.NET AJAX at or below 2019.3.1023 is affected, unless 2019.3.1023 has the non-default hardening setting enabled (as of 2020.1.114 a default setting prevents the exploit). Exploitation is rampant in the wild: the flaw was added to CISA KEV on 2021-11-03 with known ransomware use, carries a 99.7% EPSS probability of exploitation, has multiple public exploits (Bishop Fox, RAU_crypto, noperator), and has been used by multiple threat groups — including ransomware and government-linked actors — to breach organizations including a U.S. federal agency. Do: Upgrade to Progress Telerik UI for ASP.NET AJAX 2020.1.114 or later, where a default setting prevents exploitation (or, if staying on 2019.3.1023, enable the non-default hardening setting); per CISA KEV, apply updates per vendor instructions. Because exploitation requires the encryption keys to be known, also patch the older CVE-2017-11317/CVE-2017-11357 key-disclosure flaws or rotate the Telerik upload encryption keys. Check internet-facing IIS/ASP.NET applications for exposed RadAsyncUpload handlers and indicators of compromise, given known ransomware and federal-agency breaches. | 9.8 | 100% | KEV ransomware PoC ×4 |
| largeTens of thousands of internet-exposed ASP.NET/IIS web applications using Telerik controls (order-of-magnitude estimate) | |
| CVE-2021-23758 | Unauthenticated .NET Deserialization RCE in Ajax.NET Professional (ajaxpro.2) Ajax.NET Professional (distributed as the ajaxpro.2 package) is vulnerable to insecure deserialization (CWE-502): it deserializes arbitrary .NET classes supplied by the client without validating which types may be instantiated. Because AjaxPro exposes HTTP endpoints for browser-to-server AJAX calls, a remote, unauthenticated attacker can send a crafted serialized payload to any reachable AjaxPro endpoint and abuse .NET deserialization gadget chains to execute code on the server. Successful exploitation yields full remote code execution with high impact on confidentiality, integrity, and availability (CVSS 3.1 score of 9.8, network vector, no privileges or user interaction required). Any application running any version of ajaxpro.2 / Ajax.NET Professional is affected; the provided data specifies no fixed version, so defenders must rely on vendor guidance for patched releases. The flaw was added to CISA's Known Exploited Vulnerabilities catalog on 2026-08-26, carries an EPSS 30-day exploitation probability of 83.6%, has public PoC code available, and Talos Intelligence reporting links it to the Chinese-speaking threat actor UAT-10147, which deploys the SPECTRE malware with an EDR bypass and a Linux rootkit in post-compromise operations. Do: Inventory your ASP.NET estate for AjaxPro usage (web.config references, AjaxPro HTTP handlers) and prioritize any internet-facing instance for remediation. Upgrade ajaxpro.2 to the latest vendor release per vendor instructions — the provided data specifies no fixed version — or, if patching is not immediately possible, restrict or block access to AjaxPro endpoints from the internet. Because the flaw is on CISA's KEV under BOD 26-04, apply mitigations within the required timeline and hunt exposed servers for post-compromise tooling, as Talos reports UAT-10147 deploying SPECTRE with an EDR bypass and a Linux rootkit. | 9.8 | 84% | KEV PoC ×2 |
| unknown (no public install-base or internet-exposure counts available for this legacy library) | |
| CVE-2021-29441 +1 in the same advisory: …29442 | Nacos is a platform designed for dynamic service discovery and configuration and service management. Nacos is a platform designed for dynamic service discovery and configuration and service management. In Nacos before version 1.4.1, when configured to use authentication (-Dnacos.core.auth.enabled=true) Nacos uses the AuthFilter servlet filter to enforce authentication. This filter has a backdoor that enables Nacos servers to bypass this filter and therefore skip authentication checks. This mechanism relies on the user-agent HTTP header so it can be easily spoofed. This issue may allow any user to carry out any administrative tasks on the Nacos server. NVD description · AI analysis pending | 9.8 group max | 88% | PoC ×2 |
| — | |
| CVE-2021-3156 | Heap-Based Buffer Overflow in Sudo Enables Local Privilege Escalation (CVE-2021-3156) CVE-2021-3156 is an off-by-one error (CWE-193) in the Unix Sudo utility that causes a heap-based buffer overflow (CWE-122) in Sudo's handling of command-line arguments. It is triggered locally when an unprivileged user invokes Sudo with specially crafted arguments, requiring no special privileges or non-default configuration. A successful exploit allows the attacker to execute arbitrary code as root, achieving full local privilege escalation on the host. Any Linux, Unix, or other system running a vulnerable version of Sudo is affected, and because Sudo ships by default on virtually all such systems the potential footprint is enormous. The flaw is listed in CISA's Known Exploited Vulnerabilities catalog (added 2022-04-06) and carries a 100% EPSS probability of exploitation within 30 days, indicating active in-the-wild exploitation, though specific ransomware use is unknown. Do: Upgrade Sudo to a patched release (1.9.5p2 or later, or the vendor-supplied update for your distribution) per vendor instructions, as required by the CISA KEV listing. Audit all Unix-like hosts by checking the installed Sudo version through your package manager and prioritize patching multi-user and internet-facing servers. Restricting local shell access and monitoring for anomalous Sudo invocations can reduce risk while patching completes. | 7.8 | 100% | KEV PoC ×12 |
| masstens of millions of Linux/Unix servers, workstations and devices (Sudo is preinstalled on virtually all Linux distributions) | |
| CVE-2022-0847 | Local Privilege Escalation ('Dirty Pipe') in the Linux Kernel CVE-2022-0847, widely known as 'Dirty Pipe,' is a privilege escalation flaw in the Linux kernel caused by improper initialization of the 'flags' member of the new pipe buffer structure in the copy_page_to_iter_pipe and push_pipe functions, allowing stale flag values to persist (CWE-665). An unprivileged local user can trigger the flaw by writing through a pipe into the page cache of files they can read, overwriting the contents of otherwise read-only files. This enables tampering with privileged files — for example, hijacking SUID binaries per the public proof-of-concepts — to escalate privileges to root on the local system. Affected products include the Linux kernel as tracked by CISA, with downstream distribution and appliance vendors Fedora, Red Hat Enterprise Linux (including EUS, IBM Z, Power little-endian, and Real Time/NFV variants), oVirt, NetApp, Siemens, and SonicWall. Exploitation is confirmed in the wild: the flaw is on CISA's Known Exploited Vulnerabilities catalog (added 2022-04-25), carries an 89.7% EPSS probability of exploitation within 30 days, and multiple public proof-of-concept exploits are available. Do: Apply vendor-supplied fixed kernel updates immediately per the CISA KEV required action, including patches from Fedora and Red Hat Enterprise Linux (all listed variants) and from oVirt, NetApp, Siemens, and SonicWall appliances or products that embed affected kernels; verify the running kernel version on hosts, container hosts, and appliances and reboot into the patched kernel. There is no complete workaround — the kernel itself must be patched — so prioritize multi-user servers, systems running untrusted code or containers, and internet-exposed appliances, since any local account can gain root. | 7.8 | 90% | KEV PoC ×4 |
| mass≈1 billion+ Linux-based systems (servers, cloud VMs, Android/embedded devices) potentially vulnerable on unpatched kernels | |
| CVE-2022-0995 | Out-of-Bounds Write in Linux Kernel watch_queue Enables Local Privilege Escalation CVE-2022-0995 is an out-of-bounds (OOB) memory write in the Linux kernel's watch_queue event notification subsystem (CWE-787) that can overwrite parts of kernel state. A local user can trigger it through the watch_queue interface, for example by supplying a crafted event filter definition, causing the kernel to write beyond allocated memory when event notifications are processed. Successful exploitation may allow the local user to gain privileged (kernel/root) access or crash the system, yielding high impact on confidentiality, integrity, and availability (CVSS 3.1: 7.8, local attack vector). Affected systems include mainstream Linux kernels (Fedora is explicitly listed) and NetApp HCI appliance firmware products that ship the affected kernel. The flaw is confirmed exploited in the wild: CISA added it to the Known Exploited Vulnerabilities catalog on 2026-08-26, two public proof-of-concepts are available, and EPSS puts 30-day exploitation probability at 9.5% (95th percentile), though ransomware use is unconfirmed. Do: Apply updated kernels from your distribution or vendor (Fedora kernel updates; NetApp fixes are delivered via the HCI firmware updates in its security advisory) and prioritize internet-exposed, multi-user hosts per CISA BOD 26-04, including the required forensics triage checks. Because exploitation requires local access, restrict untrusted local code execution and shell access on unpatched systems, and hunt for signs of local privilege escalation on high-exposure hosts. After remediation, verify the patched kernel package is installed and that the running kernel has actually been booted into the fixed version. | 7.8 | 10% | KEV PoC ×2 |
| massmillions of Linux systems (kernel flaw spans mainstream distributions, Fedora, and NetApp HCI appliance firmware; only builds with the watch_queue subsystem… | |
| CVE-2022-27925 | Authenticated Path Traversal File Upload Leading to RCE in Zimbra Collaboration Suite CVE-2022-27925 is a directory traversal flaw (CWE-22) in the mailbox import (mboximport) functionality of Synacor Zimbra Collaboration Suite (ZCS), which accepts a ZIP archive and extracts files from it without properly validating paths. An authenticated user with administrator rights can trigger the flaw by submitting a malicious ZIP archive, causing arbitrary files to be written outside the intended directory. By planting attacker-controlled files in arbitrary locations, an attacker can achieve remote code execution on the server. All organizations running ZCS 8.8.15 or 9.0 are potentially affected, and the flaw has been mass-exploited in the wild — CISA added it to the Known Exploited Vulnerabilities catalog on 2022-08-11, ordered civilian agencies to patch it, and ransomware operators and other actors are known to be using it. Do: Apply the vendor's updates/patches for ZCS 8.8.15 and 9.0 as instructed by Zimbra, per CISA's required action. Limit external access to Zimbra's mailbox import/administration endpoints to trusted networks only, and hunt for indicators of compromise such as unexpected files or webshells in the Zimbra web root, unusual admin activity, and signs of follow-on ransomware deployment. | 7.2 | 99% | KEV ransomware PoC |
| largetens of thousands of internet-exposed Zimbra servers serving an estimated hundreds of thousands of users (vendor claims 200,000+ organizational customers) |
Full article1,426 words · extracted from thehackernews.com · click to collapse
Cybersecurity researchers have disclosed details of a Chinese-speaking cybercrime group dubbed UAT-10147 that's targeting Windows and Linux web servers globally across the education, media, technology, and gaming sectors.
The vast majority of the targets are located in Brazil, Bolivia, China, Canada, and Vietnam. Details of the threat activity came to light following the discovery of an open directory hosted at "139.180.197[.]150," which was observed communicating with one of the compromised machines.
"The actor leveraged publicly disclosed vulnerabilities to gain initial access at scale," Cisco Talos said in a two-part report published last week. The actor employed a mixture of open-source offensive frameworks, including Metasploit, ysoserial, PentestGPT, DeepAudit, and multiple privilege escalation exploits to automate intrusion operations and establish persistence."
UAT-10147 has been described as a threat actor that conducts search engine optimization (SEO) fraud and data theft, while integrating artificial intelligence (AI)-powered tools at various phases of the attack cycle to facilitate exploitation, reconnaissance, payload generation, validation, and persistence.
Specifically, this involves using AI to refine exploits, troubleshoot logic, automate post-exploitation workflows, validate exploits, and generate operational documentation, indicating an attempt to implement offensive tradecraft at scale.
An analysis of the exposed directory has identified a text file containing a target list with approximately 170,000 URLs, with the attacker splitting it into 17 smaller files containing about 10,000 URLs each to more efficiently parse the set. The top five destinations based on the target list consist of the U.S., India, the U.K., Germany, and the Netherlands.
Attack chains involve exploiting known flaws to achieve remote code execution (RCE) on a website or a vulnerable IIS server, and then run an automated script to install and deploy malware for SEO fraud or data stealing. Select instances entail the deployment of a web shell, which then paves the way for BadIIS and additional backdoors for persistent access.
Some of the other steps undertaken by UAT-10147 are as follows -
- Using a batch script that employs certutil to download a privilege escalation tool ("EfsPotato"), a secondary batch script, and Quasar RAT from a remote server ("adminapi.tippusoni[.]in")
- Using EfsPotato to gain elevated system privileges, configure Microsoft Defender exclusions
- Deleting initial payloads to cover its tracks and thwart forensic analysis
- Deploying follow-on implants like Gh0stCringe and a previously unreported cross-platform implant dubbed SPECTRE
- Using the secondary batch script to silently execute Quasar RAT and establish persistence using a deceptive scheduled task named "Google Chrome Start"
- Abusing the elevated privileges to download a third batch script, which then installs BadIIS
Interestingly, the core BadIIS malware is the same specific variant that's known to operate under a malware-as-a-service (MaaS) model and is used by multiple Chinese-speaking cybercrime groups.
The Linux attacks, like in the case, leverage various known vulnerabilities to obtain an initial foothold, followed by abusing various known Local Privilege Escalation (LPE) exploits to escalate to root, including CVE-2022-0995, CVE-2021-3156, CVE-2015-5287, CVE-2015-3246, CVE-2010-3904, and CVE-2022-0847.
Once root-level access is unlocked, the threat actor has been observed deploying multiple backdoors like Noodle RAT (a variant of Gh0st RAT and Rekoobe), SPECTRE, and Meterpreter to enable outbound connections to remote command-and-control (C2) infrastructure. Some of the vulnerabilities weaponized by the threat actor over the course of the campaign include CVE-2022-27925 (Zimbra), CVE-2021-23758 (AjaxPro), CVE-2019-18935 (Telerik UI for ASP.NET AJAX), CVE-2021-29441, and CVE-2021-29442 (Alibaba Nacos).
"By routing exfiltrated data to a legitimate cloud-based configuration management service, the attackers effectively blend their traffic with normal administrative operations," Talos researcher Joey Chen said. "This infrastructure choice acts as an asynchronous exfiltration sink, allowing the adversaries to poll their own Nacos instance to verify successful exploitation across victims without the operational overhead or detection risk of establishing a persistent reverse shell or maintaining direct inbound connections."
A notable aspect of UAT-10147's tradecraft concerns an AI-driven framework called DeepAudit for vulnerability scanning. Talos said it found no evidence of the threat actor exploiting vulnerabilities discovered by the tool in victim environments, although it was left accessible on the management server.
This has raised the possibility that the attackers are planning on using DeepAudit to identify vulnerabilities within target environments. Conversely, it's also likely that it could be used to improve their own defensive posture by proactively auditing their own infrastructure and tooling to prevent potential exposure and compromise by other threat actors.
UAT-10147 has also been found to install PentestGPT, an open-source autonomous pentesting framework, on their C2 server to scan web servers and execute relevant proof-of-concept exploits. In one case, the threat actor is said to have successfully exploited a website and collected information about the victim host using Linux commands.
Another AI-oriented tool put to use by the threat actor is an ASP.NET ViewState deserialization remote code execution guide, which delves into the following aspects -
- Making use of the badsecrets library comprising publicly known or leaked ASP.NET MachineKey configurations, checks the key's validity, employs ysoserial.net to build malicious deserialization payloads that bypass View State protection using the pre-exposed MachineKey, and achieves code execution
- Conducting systematic reconnaissance following code execution via PowerShell to collect system information, privilege tokens, web directory listings, IIS site configurations, network interface data, and running processes, and exfiltrate them to a remote webhook
- Establishing persistent interactive access using SPECTRE, or alternatively, writing an ASHX web shell to the IIS webroot and a PowerShell TCP reverse shell
- Elevating privileges from IIS AppPool identity to SYSTEM using the Potato family of tools or SPECTRE through a built-in routine named "spectre_potato()"
Four other AI-generated tools used by UAT-10147 are Python scripts: One which acts as a post-exploitation diagnostic utility to troubleshoot, among other things, web shell write failures, while the second uses the ViewState deserialization primitive to download and launch the SPECTRE implant.
The third script deploys the ASHX web shell onto the compromised IIS server via the same deserialization mechanism. The final script is responsible for blending exfiltration traffic with legitimate software-as-a-service (SaaS) traffic over HTTPS and transmitting webfoot enumeration, IIS site inventory, and privilege assessment details to a webhook endpoint.
SPECTRE, per Talos, is a cross-platform backdoor written in C that features obfuscation and anti-analysis techniques to fly under the radar. It communicates with a C2 server using HTTPS and supports as many as 45 commands that grant the operator extensive control over the infected endpoint. The first use of the implant by the threat actor dates back to April 2026.
"The newly identified SPECTRE implant represents a significant evolution in commodity intrusion tooling, integrating cross-platform command-and-control (C2) operations, process injection, credential theft, anti-analysis protections, and kernel-level endpoint detection and response (EDR) bypass functionality," Talos said.
The Windows version is equipped to perform file operations, record keystrokes, take screenshots, download/upload files, execute shell commands, get running processes, terminate a specific process, get system information, set beacon sleep interval, modify file timestamps, inject shellcode, use process hollowing and Early Bird APC injection, kill EDR processes using the bring your own vulnerable driver (BYOVD) technique, and delete itself from the host.
The BYOVD attack utilizes two well-known vulnerable drivers MSI's "RTCore64.sys" (CVE-2019-16098) and Dell's "DBUtil_2_3.sys" (CVE-2021-21551) to obtain elevated privileges and terminate security-related processes.
SPECTRE's Linux variant follows more or less the same pattern, running a series of anti-sandbox checks before setting up a C2 connection. Both versions employ a weighted scoring mechanism that causes the program to self-terminate if the score exceeds 50 points. The evaluation is based on process name blocklists, RAM capacity, CPU core count, disk space, sleep acceleration detection, and common sandbox host names and usernames.
The Linux version's instruction set, in contrast, only supports 29 commands that encompass file system manipulation, system and process reconnaissance, agent management, and unrestricted shell execution. Its most potent capability is an integrated kernel-level rootkit dubbed Specter that's deployed as a kernel module.
It's suspected that the rootkit was developed using a combination of AI-assisted development and human expertise, given the presence of descriptive source code comments, uniform decorative separators to explain each function, and the presence of multiple methods to achieve the same purpose – something that AI models are known to generate when prompted to be thorough, as opposed to just implementing the most effective method.
"This architecture grants the threat actor persistent, kernel-level control of the compromised host that survives both reboots and most user-level security controls," Talos said. "The SPECTRE backdoor loads the Linux Kernel rootkit, Specter, to prevent detection from security products."
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