mirror of https://github.com/mukul975/Anthropic-Cybersecurity-Skills.git synced 2026-07-21 09:41:21 +03:00

Files

T

mukul975 efca3ec611 feat: add NIST CSF 2.0 nist_csf field to all 754 cybersecurity skills

Mapped every skill to NIST CSF 2.0 subcategory IDs (GV/ID/PR/DE/RS/RC functions)
based on subdomain and content analysis. Restores 11 skills corrupted during
prior rebase, re-enriching with ATLAS, D3FEND, NIST AI RMF, and CSF 2.0 fields.

All 754 skills now carry structured mappings for all 5 security frameworks:
- MITRE ATT&CK (in tags)
- MITRE ATLAS v5.5 (atlas_techniques)
- MITRE D3FEND v1.3 (d3fend_techniques)
- NIST AI RMF 1.0 (nist_ai_rmf)
- NIST CSF 2.0 (nist_csf)

2026-04-06 11:17:40 +02:00

8.3 KiB

Raw Blame History

name, description, domain, subdomain, tags, version, author, license, d3fend_techniques, nist_csf

name

description

domain

subdomain

Performing Memory Forensics with Volatility3 Plugins

Overview

Volatility3 (v2.26.0+, feature parity release May 2025) is the standard framework for memory forensics, replacing the deprecated Volatility2. It analyzes RAM dumps from Windows, Linux, and macOS to detect malicious processes, code injection, rootkits, credential harvesting, and network connections that disk-based forensics cannot reveal. Key plugins include windows.malfind (detecting RWX memory regions indicating injection), windows.psscan (finding hidden processes), windows.dlllist (enumerating loaded modules), windows.netscan (active network connections), and windows.handles (open file/registry handles). The 2024 Plugin Contest introduced ETW Scan for extracting Event Tracing for Windows data from memory.

When to Use

When conducting security assessments that involve performing memory forensics with volatility3 plugins
When following incident response procedures for related security events
When performing scheduled security testing or auditing activities
When validating security controls through hands-on testing

Prerequisites

Python 3.9+ with volatility3 framework installed
Memory dump files (.raw, .dmp, .vmem, .lime)
Windows symbol tables (ISF files, auto-downloaded)
Understanding of Windows process memory architecture
YARA integration for in-memory pattern scanning

Workflow

Step 1: Process Analysis for Malware Detection

#!/usr/bin/env python3
"""Volatility3-based memory forensics automation for malware analysis."""
import subprocess
import json
import sys
import os


class Vol3Analyzer:
    """Automate Volatility3 plugin execution for malware analysis."""

    def __init__(self, dump_path, vol3_path="vol"):
        self.dump_path = dump_path
        self.vol3 = vol3_path
        self.results = {}

    def run_plugin(self, plugin, extra_args=None):
        """Execute a Volatility3 plugin and capture output."""
        cmd = [
            self.vol3, "-f", self.dump_path,
            "-r", "json", plugin,
        ]
        if extra_args:
            cmd.extend(extra_args)

        try:
            result = subprocess.run(
                cmd, capture_output=True, text=True, timeout=300
            )
            if result.returncode == 0:
                return json.loads(result.stdout)
        except (subprocess.TimeoutExpired, json.JSONDecodeError) as e:
            print(f"  [!] {plugin} failed: {e}")
        return None

    def detect_process_injection(self):
        """Use malfind to detect injected code regions."""
        print("[+] Running windows.malfind (code injection detection)")
        results = self.run_plugin("windows.malfind")

        injected = []
        if results:
            for entry in results:
                injected.append({
                    "pid": entry.get("PID"),
                    "process": entry.get("Process"),
                    "address": entry.get("Start VPN"),
                    "protection": entry.get("Protection"),
                    "hexdump": entry.get("Hexdump", "")[:200],
                })
                print(f"  [!] Injection in PID {entry.get('PID')} "
                      f"({entry.get('Process')}) at {entry.get('Start VPN')}")

        self.results["injected_processes"] = injected
        return injected

    def find_hidden_processes(self):
        """Compare pslist vs psscan to find hidden processes."""
        print("[+] Running process comparison (pslist vs psscan)")

        pslist = self.run_plugin("windows.pslist")
        psscan = self.run_plugin("windows.psscan")

        if not pslist or not psscan:
            return []

        list_pids = {e.get("PID") for e in pslist}
        scan_pids = {e.get("PID") for e in psscan}

        hidden = scan_pids - list_pids
        if hidden:
            print(f"  [!] {len(hidden)} hidden processes found!")
            for entry in psscan:
                if entry.get("PID") in hidden:
                    print(f"    PID {entry['PID']}: {entry.get('ImageFileName')}")

        self.results["hidden_processes"] = list(hidden)
        return list(hidden)

    def analyze_network(self):
        """Extract active network connections."""
        print("[+] Running windows.netscan")
        results = self.run_plugin("windows.netscan")

        connections = []
        if results:
            for entry in results:
                conn = {
                    "pid": entry.get("PID"),
                    "process": entry.get("Owner"),
                    "local": f"{entry.get('LocalAddr')}:{entry.get('LocalPort')}",
                    "remote": f"{entry.get('ForeignAddr')}:{entry.get('ForeignPort')}",
                    "state": entry.get("State"),
                    "protocol": entry.get("Proto"),
                }
                connections.append(conn)

        self.results["network_connections"] = connections
        return connections

    def extract_dlls(self, pid=None):
        """List loaded DLLs per process."""
        print(f"[+] Running windows.dlllist{f' (PID {pid})' if pid else ''}")
        args = ["--pid", str(pid)] if pid else None
        results = self.run_plugin("windows.dlllist", args)

        dlls = []
        if results:
            for entry in results:
                dlls.append({
                    "pid": entry.get("PID"),
                    "process": entry.get("Process"),
                    "base": entry.get("Base"),
                    "name": entry.get("Name"),
                    "path": entry.get("Path"),
                    "size": entry.get("Size"),
                })

        self.results["loaded_dlls"] = dlls
        return dlls

    def scan_with_yara(self, rules_path):
        """Scan memory with YARA rules."""
        print(f"[+] Running windows.yarascan with {rules_path}")
        results = self.run_plugin(
            "windows.yarascan",
            ["--yara-file", rules_path]
        )

        matches = []
        if results:
            for entry in results:
                matches.append({
                    "rule": entry.get("Rule"),
                    "pid": entry.get("PID"),
                    "process": entry.get("Process"),
                    "offset": entry.get("Offset"),
                })

        self.results["yara_matches"] = matches
        return matches

    def full_triage(self):
        """Run full malware-focused memory triage."""
        print(f"[*] Full memory triage: {self.dump_path}")
        print("=" * 60)

        self.detect_process_injection()
        self.find_hidden_processes()
        self.analyze_network()

        return self.results


if __name__ == "__main__":
    if len(sys.argv) < 2:
        print(f"Usage: {sys.argv[0]} <memory_dump>")
        sys.exit(1)

    analyzer = Vol3Analyzer(sys.argv[1])
    results = analyzer.full_triage()
    print(json.dumps(results, indent=2, default=str))

Validation Criteria

Memory dump successfully parsed with correct OS profile
Injected processes detected via malfind with RWX regions
Hidden processes identified through pslist/psscan comparison
Network connections reveal C2 communication endpoints
YARA rules match known malware signatures in memory
Credential artifacts extracted from lsass process memory

8.3 KiB Raw Blame History