Inside the Everlasting_Cloud Stealer Log: 6,229 Credentials Stolen
We noticed a recent upload to a public Telegram channel containing a stealer log file, dated April 21, 2025. This particular dump, originating from a source identified as "Everlasting_Cloud," caught our attention due to its relatively modest size but the concerning nature of the exposed data. What struck us was the presence of plaintext passwords alongside email addresses and URLs, indicating a direct compromise of user credentials rather than a more complex credential stuffing attack. The log appears to have captured active sessions or stored credentials from compromised endpoints.
The breach breakdown reveals a stealer log file, uploaded by a Telegram user, exposing 6229 records. The leaked data types include email addresses, plaintext passwords, and URLs. The source structure suggests the log originated from a credential-stealing malware, likely capturing credentials from web browsers, email clients, or API access points on infected endpoints. The presence of plaintext passwords is a critical vulnerability, as it bypasses common hashing and salting defenses and allows for immediate unauthorized access to associated accounts and services. The URLs likely represent visited sites or API endpoints that the malware was configured to target or exfiltrate information from.
While specific news coverage for this particular "Everlasting_Cloud" stealer log is not readily apparent, the broader trend of credential-stealing malware remains a significant concern within the cybersecurity landscape. Research from various security firms, such as Mandiant and CrowdStrike, consistently highlights the prevalence of stealer malware like RedLine, Vidar, and Raccoon as a primary vector for initial access and data exfiltration. These tools are widely available on dark web forums and are frequently used by threat actors to gather credentials for subsequent phishing, ransomware deployment, or direct financial fraud. The ease of deployment and effectiveness of these stealers contribute to their persistent threat.
Our attention was drawn to a recent data leak on April 21, 2025, attributed to a Telegram user and labeled "Everlasting_Cloud." This incident, while not the largest in terms of volume, presents a clear and immediate risk due to the direct exposure of sensitive authentication material. What immediately stood out was the inclusion of plaintext passwords, a stark indicator of a compromised endpoint where credentials were not adequately protected. The nature of the data suggests a direct capture from active sessions or stored credentials, bypassing more sophisticated defenses.
The breach involves a stealer log file containing 6229 records. The exposed data comprises email addresses, plaintext passwords, and associated URLs. The source structure indicates the log was generated by a credential-stealing malware, likely designed to harvest credentials from web browsers, email clients, or potentially API access tokens stored on compromised endpoints. The critical aspect here is the plaintext nature of the passwords, which implies a direct compromise of the endpoint's memory or local storage, allowing for immediate unauthorized access to any accounts associated with the leaked email addresses. The URLs provide context on the types of services or applications the compromised users were interacting with.
While this specific "Everlasting_Cloud" incident may not have generated widespread media attention, the underlying threat of stealer malware is extensively documented. Security reports from organizations like the Verizon Data Breach Investigations Report (DBIR) consistently identify malware, including stealers, as a significant contributor to data breaches. Open-source intelligence (OSINT) on Telegram channels frequently reveals the sale and distribution of such logs, underscoring the accessibility of these tools to a broad range of threat actors. The continuous evolution of stealer malware, with new variants emerging and existing ones being updated, poses an ongoing challenge for endpoint security.
We've identified a concerning data leak from April 21, 2025, uploaded by a Telegram user and identified as "Everlasting_Cloud." This particular incident, while impacting a relatively small number of records at 6229, warrants immediate attention due to the direct exposure of authentication credentials. What is particularly alarming is the presence of plaintext passwords within the leaked data, alongside email addresses and URLs, suggesting a sophisticated compromise of endpoint security.
The breach consists of a stealer log file that has exposed 6229 records. The data types include email addresses, plaintext passwords, and URLs. The source structure points towards a credential-stealing malware operation, where the log file likely captured active session cookies, saved credentials from browsers, or direct API authentication details from compromised endpoints. The critical vulnerability lies in the plaintext passwords, which can be directly used by attackers to gain access to associated accounts without any need for further cracking or brute-forcing. The URLs provide valuable context regarding the targeted services or applications, aiding in threat actor profiling.
There is no specific news coverage readily available for this "Everlasting_Cloud" leak. However, the broader threat landscape is dominated by credential-stealing malware. Research from cybersecurity firms frequently details the functionality and distribution of such tools on underground forums. For instance, reports on malware families like Agent Tesla or Formbook illustrate the common methods these stealers employ to exfiltrate sensitive information, including credentials, from infected systems. The continuous availability and evolution of these tools make them a persistent threat vector for enterprises.
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