{ "family": "cliptoshuffler", "sample_count": 1, "category": "trojan", "description": "

Executive Summary

\nCliptoshuffler (often referred to simply as a \"Clipper\") is a highly specialized and stealthy Trojan engineered specifically to steal cryptocurrency. It operates by continuously monitoring the infected system's clipboard. When it detects a string resembling a cryptocurrency wallet address, it instantly replaces it with a wallet address controlled by the attacker, hijacking the transaction before it is sent.\n\n

Infection Vector and Technical Capabilities

\nClippers are frequently bundled with other malware, distributed via Malspam, hidden inside \"cracked\" software, or dropped by initial access brokers who have already compromised a system.\n\nOnce resident in memory, Cliptoshuffler executes its targeted theft routine:\n\n\n

Threat Assessment

\nA Cliptoshuffler infection leads to immediate, irreversible financial loss. Because cryptocurrency transactions cannot be reversed or charged back, the theft is absolute. The malware is designed to be entirely invisible to the user until the moment the transaction is finalized.\n\n

Remediation and Eradication

\n", "cta": "Published by the SystemHelpdesk team.", "aliases": [ "Trojan.Clipper", "Trojan.CoinThief", "Win32/Cliptoshuffler" ], "enrichment_level": "expert-seo", "faq": [ { "@type": "Question", "name": "What is Cliptoshuffler and what threat category does it belong to?", "acceptedAnswer": { "@type": "Answer", "text": "Cliptoshuffler is classified as a Trojan. Documented across security telemetry, it is engineered to execute unauthorized operations, establish persistent footholds on target endpoints, and facilitate malicious campaigns targeting enterprise and individual environments." } }, { "@type": "Question", "name": "How does Cliptoshuffler establish persistence and evade defensive controls?", "acceptedAnswer": { "@type": "Answer", "text": "Cliptoshuffler typically establishes persistence through registry run keys, scheduled tasks, or service installations, while evading signature-based antivirus solutions through code obfuscation, memory injection, or anti-analysis sandbox checks." } }, { "@type": "Question", "name": "What are the essential incident response steps for mitigating a Cliptoshuffler compromise?", "acceptedAnswer": { "@type": "Answer", "text": "Security teams responding to Cliptoshuffler should immediately isolate affected endpoints from the network, perform memory triage to capture volatile forensic artifacts, audit registry and startup persistence mechanisms, revoke exposed user credentials, and restore systems from verified, clean backups." } }, { "@type": "Question", "name": "What secondary payloads and staging behaviors are commonly associated with Trojan.Clipper?", "acceptedAnswer": { "@type": "Answer", "text": "Trojan.Clipper frequently operates as a loader or dropper designed to establish a foothold before downloading and executing secondary high-impact malware payloads. Depending on the threat actor's objectives, these dropped modules can range from ransomware and banking injects to modular infostealers and remote management backdoors." } }, { "@type": "Question", "name": "How can security operations teams effectively detect and hunt for Trojan.Clipper across enterprise endpoints?", "acceptedAnswer": { "@type": "Answer", "text": "Defenders should hunt for Trojan.Clipper by deploying behavioral endpoint detection and response (EDR) rules that monitor suspicious process spawning (such as cmd.exe or powershell.exe spawned from office documents or temporary directories), anomalous outbound network connections from non-browser binaries, and unauthorized modifications to Windows Run keys and scheduled task registries." } } ], "faq_count": 5, "mitre_attack": [ "T1115", "T1565.001", "T1059" ], "cisa_advisory": null, "last_updated": "2026-10-15", "type": "Trojan / Clipper", "target_industries": [ "Global / Opportunistic" ], "motivation": "Opportunistic", "threat_actors": [ "Unknown / Cybercriminal" ], "target_geographies": [ "Global" ], "attack_stage": [ "execution", "persistence" ], "ecosystem": [ "windows_pe" ], "is_emerging": false, "mitre_attack_detail": [ { "id": "T1115", "name": "Clipboard Data", "tactic": "Collection" }, { "id": "T1565.001", "name": "Data Manipulation: Stored Data Manipulation (Altering DNS IP settings)", "tactic": "Impact" }, { "id": "T1059", "name": "Command and Scripting Interpreter", "tactic": "Execution" } ], "containment_steps": [ "Sever network connectivity for the flagged endpoint to terminate persistent command-and-control (C2) communication channels and stop Cliptoshuffler from retrieving secondary stage payloads.", "Capture process memory triage to detect and terminate malicious threads injected by Cliptoshuffler into legitimate system processes such as explorer.exe or svchost.exe.", "Audit Windows Registry Run keys (HKCU\\Software\\Microsoft\\Windows\\CurrentVersion\\Run) and Task Scheduler entries to locate and purge Cliptoshuffler persistence hooks.", "Deploy updated enterprise EDR detection signatures and conduct an out-of-band endpoint scan to isolate dropped binaries and staged payloads.", "Rotate all credentials, domain user passwords, and session cookies active on the system during the Cliptoshuffler execution timeframe." ], "what_to_avoid": [ "Do not assume the incident is resolved simply because an antivirus tool removed the initial Cliptoshuffler dropper; always verify that secondary payloads and persistence hooks have been eradicated.", "Avoid logging in with Domain Admin or privileged credentials on a machine suspected of running Cliptoshuffler until memory triage is complete.", "Do not delay host isolation; automated lateral movement and credential dumping can occur within minutes of initial execution." ], "target_platforms": [ "Windows 11", "Windows 10", "Windows 7" ] }