# WIA-SEC-020: Security Incident Response - Phases 2, 3, 4 Specification

**Standard ID:** WIA-SEC-020
**Version:** 1.0
**Status:** ACTIVE
**Last Updated:** 2025-12-25

---

## Phase 2: Advanced Detection and Analysis

### 2.1 Threat Intelligence Integration

#### 2.1.1 STIX/TAXII Integration

**STIX (Structured Threat Information Expression):**
```json
{
  "type": "indicator",
  "spec_version": "2.1",
  "id": "indicator--8e2e2d2b-17d4-4cbf-938f-98ee46b3cd3f",
  "created": "2025-12-25T10:00:00.000Z",
  "modified": "2025-12-25T10:00:00.000Z",
  "name": "Malicious IP Indicator",
  "description": "IP address associated with APT29 C2 infrastructure",
  "indicator_types": ["malicious-activity"],
  "pattern": "[ipv4-addr:value = '192.168.1.100']",
  "pattern_type": "stix",
  "valid_from": "2025-12-25T10:00:00Z",
  "kill_chain_phases": [
    {
      "kill_chain_name": "mitre-attack",
      "phase_name": "command-and-control"
    }
  ]
}
```

**TAXII Server Configuration:**
```python
# TAXII 2.1 Client Implementation
from taxii2client.v21 import Server, Collection

# Connect to threat intelligence server
server = Server("https://threatintel.example.com/taxii/",
                user="csirt", password="***")

# Get available collections
collections = server.api_root.collections

# Poll for new indicators
for collection in collections:
    if collection.title == "APT Indicators":
        indicators = collection.get_objects()
        for indicator in indicators:
            process_threat_indicator(indicator)
```

#### 2.1.2 MITRE ATT&CK Mapping

**Technique Mapping:**
```python
class MitreAttackMapper:
    """Map observed behaviors to MITRE ATT&CK techniques"""

    def __init__(self):
        self.technique_db = self.load_mitre_database()

    def map_behavior(self, observed_behavior):
        """
        Map observed behavior to ATT&CK technique
        """
        mappings = {
            "powershell_execution": {
                "technique": "T1059.001",
                "tactic": "Execution",
                "name": "PowerShell"
            },
            "credential_dumping": {
                "technique": "T1003",
                "tactic": "Credential Access",
                "name": "OS Credential Dumping"
            },
            "lateral_movement_rdp": {
                "technique": "T1021.001",
                "tactic": "Lateral Movement",
                "name": "Remote Desktop Protocol"
            },
            "data_exfiltration_http": {
                "technique": "T1041",
                "tactic": "Exfiltration",
                "name": "Exfiltration Over C2 Channel"
            }
        }

        return mappings.get(observed_behavior, None)

    def build_attack_chain(self, observed_techniques):
        """
        Reconstruct attack chain from observed techniques
        """
        kill_chain = {
            "initial_access": [],
            "execution": [],
            "persistence": [],
            "privilege_escalation": [],
            "defense_evasion": [],
            "credential_access": [],
            "discovery": [],
            "lateral_movement": [],
            "collection": [],
            "exfiltration": [],
            "command_and_control": []
        }

        for technique in observed_techniques:
            tactic = technique.get("tactic", "").lower().replace(" ", "_")
            if tactic in kill_chain:
                kill_chain[tactic].append(technique)

        return kill_chain
```

#### 2.1.3 Automated Threat Hunting

**Hunt Hypothesis Development:**
```python
class ThreatHuntingFramework:
    """Proactive threat hunting using hypothesis-driven approach"""

    def create_hunt_hypothesis(self, threat_intel):
        """
        Create testable hunt hypothesis from threat intelligence
        """
        hypothesis = {
            "id": f"HUNT-{generate_id()}",
            "threat_actor": threat_intel.get("actor"),
            "hypothesis": "",
            "ttps": [],
            "data_sources": [],
            "search_queries": [],
            "expected_evidence": []
        }

        # Example: APT29 hunt
        if threat_intel.get("actor") == "APT29":
            hypothesis.update({
                "hypothesis": "APT29 using compromised credentials for initial access",
                "ttps": ["T1078", "T1071", "T1059.001"],
                "data_sources": [
                    "Windows Event Logs (4624, 4625)",
                    "PowerShell logs",
                    "Network traffic to known C2"
                ],
                "search_queries": [
                    {
                        "query": 'EventID=4624 AND LogonType=3 AND TargetUserName!=*$ AND NOT SourceNetworkAddress IN (known_admin_ips)',
                        "expected_results": "Unusual remote logons from unexpected IPs"
                    },
                    {
                        "query": 'process_name=powershell.exe AND (command_line=*-encodedcommand* OR command_line=*-enc*)',
                        "expected_results": "Encoded PowerShell commands"
                    }
                ]
            })

        return hypothesis

    def execute_hunt(self, hypothesis):
        """
        Execute hunt queries and analyze results
        """
        results = {
            "hypothesis_id": hypothesis["id"],
            "findings": [],
            "iocs_discovered": [],
            "recommended_actions": []
        }

        for query in hypothesis["search_queries"]:
            findings = self.siem.search(query["query"])

            if len(findings) > 0:
                results["findings"].append({
                    "query": query["query"],
                    "hits": len(findings),
                    "sample_events": findings[:10],
                    "severity": self.assess_severity(findings)
                })

        return results
```

### 2.2 Behavioral Analytics

#### 2.2.1 User and Entity Behavior Analytics (UEBA)

**Anomaly Detection Models:**
```python
import numpy as np
from sklearn.ensemble import IsolationForest
from sklearn.preprocessing import StandardScaler

class UEBASystem:
    """User and Entity Behavior Analytics"""

    def __init__(self):
        self.model = IsolationForest(contamination=0.1, random_state=42)
        self.scaler = StandardScaler()

    def build_user_baseline(self, user_id, historical_data):
        """
        Build baseline behavior profile for user
        """
        features = self.extract_features(historical_data)

        baseline = {
            "user_id": user_id,
            "typical_login_times": self.analyze_login_patterns(features),
            "typical_locations": self.analyze_locations(features),
            "typical_data_access": self.analyze_data_access(features),
            "typical_network_activity": self.analyze_network(features),
            "peer_group": self.identify_peer_group(user_id)
        }

        return baseline

    def detect_anomalies(self, current_behavior, baseline):
        """
        Detect deviations from baseline behavior
        """
        anomalies = []

        # Login time anomaly
        if self.is_unusual_time(current_behavior["login_time"],
                                baseline["typical_login_times"]):
            anomalies.append({
                "type": "UNUSUAL_LOGIN_TIME",
                "severity": "MEDIUM",
                "description": f"Login at {current_behavior['login_time']} outside typical hours"
            })

        # Geo-location anomaly
        if current_behavior["location"] not in baseline["typical_locations"]:
            distance = self.calculate_distance(
                current_behavior["location"],
                baseline["typical_locations"][-1]
            )
            if distance > 500:  # km
                anomalies.append({
                    "type": "IMPOSSIBLE_TRAVEL",
                    "severity": "HIGH",
                    "description": f"Login from {current_behavior['location']}, {distance}km from last location"
                })

        # Data access anomaly
        if current_behavior["files_accessed"] > baseline["typical_data_access"]["max"] * 3:
            anomalies.append({
                "type": "EXCESSIVE_DATA_ACCESS",
                "severity": "HIGH",
                "description": "Accessing significantly more files than typical"
            })

        return anomalies

    def calculate_risk_score(self, user_id, anomalies):
        """
        Calculate overall risk score based on detected anomalies
        """
        weights = {
            "UNUSUAL_LOGIN_TIME": 2,
            "IMPOSSIBLE_TRAVEL": 8,
            "EXCESSIVE_DATA_ACCESS": 7,
            "PRIVILEGE_ESCALATION": 9,
            "UNUSUAL_COMMAND": 6
        }

        risk_score = sum(weights.get(a["type"], 1) for a in anomalies)

        if risk_score >= 15:
            return {"score": risk_score, "level": "CRITICAL"}
        elif risk_score >= 10:
            return {"score": risk_score, "level": "HIGH"}
        elif risk_score >= 5:
            return {"score": risk_score, "level": "MEDIUM"}
        else:
            return {"score": risk_score, "level": "LOW"}
```

#### 2.2.2 Network Traffic Analysis

**Deep Packet Inspection:**
```python
from scapy.all import *

class NetworkBehaviorAnalyzer:
    """Analyze network traffic for suspicious patterns"""

    def analyze_dns_tunneling(self, packets):
        """
        Detect DNS tunneling for data exfiltration
        """
        dns_queries = [p for p in packets if p.haslayer(DNS) and p[DNS].qr == 0]

        suspicious = []
        for query in dns_queries:
            domain = query[DNS].qd.qname.decode()

            # Check for suspicious patterns
            if len(domain) > 50:  # Unusually long domain
                suspicious.append({
                    "type": "LONG_DNS_QUERY",
                    "domain": domain,
                    "length": len(domain),
                    "src_ip": query[IP].src
                })

            # Check for high entropy (encoded data)
            entropy = self.calculate_entropy(domain)
            if entropy > 4.5:
                suspicious.append({
                    "type": "HIGH_ENTROPY_DNS",
                    "domain": domain,
                    "entropy": entropy,
                    "src_ip": query[IP].src
                })

        return suspicious

    def detect_beaconing(self, connections):
        """
        Detect C2 beaconing behavior
        """
        # Group connections by destination
        conn_groups = {}
        for conn in connections:
            key = (conn["src_ip"], conn["dst_ip"], conn["dst_port"])
            if key not in conn_groups:
                conn_groups[key] = []
            conn_groups[key].append(conn["timestamp"])

        beacons = []
        for key, timestamps in conn_groups.items():
            if len(timestamps) < 10:
                continue

            # Calculate intervals between connections
            intervals = [timestamps[i+1] - timestamps[i]
                        for i in range(len(timestamps)-1)]

            # Check for regular intervals (beaconing)
            mean_interval = np.mean(intervals)
            std_interval = np.std(intervals)

            if std_interval / mean_interval < 0.1:  # Very consistent intervals
                beacons.append({
                    "src_ip": key[0],
                    "dst_ip": key[1],
                    "dst_port": key[2],
                    "interval": mean_interval,
                    "confidence": "HIGH",
                    "description": f"Regular beaconing every {mean_interval:.1f}s"
                })

        return beacons
```

---

## Phase 3: Advanced Containment and Eradication

### 3.1 Automated Response (SOAR)

#### 3.1.1 Security Orchestration Platform

**Playbook Automation:**
```yaml
# SOAR Playbook: Ransomware Response
name: "Ransomware Incident Response"
trigger:
  type: "alert"
  conditions:
    - alert_type: "ransomware_detected"
    - severity: ["CRITICAL", "HIGH"]

actions:
  - name: "immediate_isolation"
    type: "network_isolation"
    targets: "{{ affected_hosts }}"
    timeout: 60
    on_failure: "notify_admin"

  - name: "snapshot_memory"
    type: "forensic_capture"
    capture_type: "memory"
    targets: "{{ affected_hosts }}"
    storage: "/forensics/{{ incident_id }}/"

  - name: "block_c2_communication"
    type: "firewall_rule"
    action: "block"
    destinations: "{{ ioc_ips }}"
    scope: "global"

  - name: "disable_accounts"
    type: "account_action"
    action: "disable"
    accounts: "{{ compromised_accounts }}"
    notify_users: false

  - name: "create_incident_ticket"
    type: "ticketing"
    system: "ServiceNow"
    priority: "P1"
    assignment_group: "CSIRT"
    description: "Ransomware detected on {{ affected_hosts | length }} hosts"

  - name: "notify_stakeholders"
    type: "notification"
    channels: ["email", "sms", "slack"]
    recipients: ["csirt-lead", "ciso", "cto"]
    template: "ransomware_alert"

  - name: "begin_recovery"
    type: "workflow"
    workflow_name: "ransomware_recovery"
    wait_for_approval: true
    approver: "csirt-lead"
```

**SOAR Integration Code:**
```python
class SOAROrchestrator:
    """Security Orchestration, Automation and Response"""

    def __init__(self):
        self.integrations = {
            "firewall": FirewallAPI(),
            "edr": EDRPlatform(),
            "siem": SIEMConnector(),
            "ticketing": ServiceNowAPI(),
            "communication": SlackAPI()
        }

    def execute_playbook(self, playbook, incident):
        """
        Execute automated response playbook
        """
        results = {
            "playbook": playbook["name"],
            "incident_id": incident["id"],
            "actions": [],
            "success": True
        }

        for action in playbook["actions"]:
            try:
                result = self.execute_action(action, incident)
                results["actions"].append({
                    "action": action["name"],
                    "status": "SUCCESS",
                    "result": result
                })

            except Exception as e:
                results["actions"].append({
                    "action": action["name"],
                    "status": "FAILED",
                    "error": str(e)
                })

                # Handle failure
                if action.get("on_failure") == "stop_playbook":
                    results["success"] = False
                    break
                elif action.get("on_failure") == "notify_admin":
                    self.notify_admin(action, e)

        return results

    def execute_action(self, action, incident):
        """
        Execute individual action
        """
        action_type = action["type"]

        if action_type == "network_isolation":
            hosts = self.resolve_variable(action["targets"], incident)
            return self.integrations["edr"].isolate_hosts(hosts)

        elif action_type == "firewall_rule":
            ips = self.resolve_variable(action["destinations"], incident)
            return self.integrations["firewall"].block_ips(ips)

        elif action_type == "account_action":
            accounts = self.resolve_variable(action["accounts"], incident)
            if action["action"] == "disable":
                return self.disable_accounts(accounts)

        elif action_type == "notification":
            return self.send_notifications(action, incident)

        # Add more action types...
```

### 3.2 Advanced Forensics

#### 3.2.1 Memory Forensics

**Volatility Framework Analysis:**
```bash
#!/bin/bash
# Automated memory analysis

MEMORY_IMAGE=$1
PROFILE=$2
OUTPUT_DIR=$3

# Determine OS profile
if [ -z "$PROFILE" ]; then
    echo "[*] Identifying OS profile..."
    PROFILE=$(volatility -f $MEMORY_IMAGE imageinfo | grep "Suggested Profile" | cut -d ":" -f 2 | cut -d "," -f 1 | tr -d ' ')
fi

echo "[+] Using profile: $PROFILE"
mkdir -p $OUTPUT_DIR

# Process listing
echo "[*] Extracting process list..."
volatility -f $MEMORY_IMAGE --profile=$PROFILE pslist > $OUTPUT_DIR/pslist.txt
volatility -f $MEMORY_IMAGE --profile=$PROFILE pstree > $OUTPUT_DIR/pstree.txt

# Network connections
echo "[*] Extracting network connections..."
volatility -f $MEMORY_IMAGE --profile=$PROFILE netscan > $OUTPUT_DIR/netscan.txt

# Command line history
echo "[*] Extracting command history..."
volatility -f $MEMORY_IMAGE --profile=$PROFILE cmdscan > $OUTPUT_DIR/cmdscan.txt
volatility -f $MEMORY_IMAGE --profile=$PROFILE consoles > $OUTPUT_DIR/consoles.txt

# Loaded DLLs and modules
echo "[*] Extracting loaded modules..."
volatility -f $MEMORY_IMAGE --profile=$PROFILE dlllist > $OUTPUT_DIR/dlllist.txt

# Malware detection
echo "[*] Scanning for malware..."
volatility -f $MEMORY_IMAGE --profile=$PROFILE malfind > $OUTPUT_DIR/malfind.txt

# Extract suspicious processes
echo "[*] Dumping suspicious processes..."
volatility -f $MEMORY_IMAGE --profile=$PROFILE procdump -D $OUTPUT_DIR/dumps/

# Registry analysis
echo "[*] Analyzing registry..."
volatility -f $MEMORY_IMAGE --profile=$PROFILE hivelist > $OUTPUT_DIR/hivelist.txt

echo "[+] Memory analysis complete. Results in $OUTPUT_DIR"
```

#### 3.2.2 Malware Analysis

**Static and Dynamic Analysis:**
```python
import pefile
import hashlib
import yara

class MalwareAnalyzer:
    """Automated malware analysis framework"""

    def analyze_sample(self, file_path):
        """
        Perform comprehensive malware analysis
        """
        analysis = {
            "file_path": file_path,
            "hashes": self.calculate_hashes(file_path),
            "file_type": self.identify_file_type(file_path),
            "static_analysis": {},
            "dynamic_analysis": {},
            "threat_classification": {}
        }

        # Static analysis
        if analysis["file_type"] == "PE":
            analysis["static_analysis"] = self.analyze_pe(file_path)

        # YARA scanning
        analysis["yara_matches"] = self.scan_yara(file_path)

        # Threat intelligence lookup
        analysis["threat_intel"] = self.lookup_threat_intel(
            analysis["hashes"]["sha256"]
        )

        # Dynamic analysis (sandboxed)
        if self.should_detonate(analysis):
            analysis["dynamic_analysis"] = self.sandbox_execute(file_path)

        return analysis

    def analyze_pe(self, file_path):
        """
        Analyze PE (Windows executable) file
        """
        pe = pefile.PE(file_path)

        analysis = {
            "imports": [],
            "exports": [],
            "sections": [],
            "suspicious_indicators": []
        }

        # Analyze imports
        if hasattr(pe, 'DIRECTORY_ENTRY_IMPORT'):
            for entry in pe.DIRECTORY_ENTRY_IMPORT:
                dll_name = entry.dll.decode()
                for imp in entry.imports:
                    func_name = imp.name.decode() if imp.name else f"Ordinal_{imp.ordinal}"
                    analysis["imports"].append(f"{dll_name}:{func_name}")

                    # Check for suspicious APIs
                    if self.is_suspicious_api(func_name):
                        analysis["suspicious_indicators"].append({
                            "type": "SUSPICIOUS_API",
                            "value": f"{dll_name}:{func_name}"
                        })

        # Analyze sections
        for section in pe.sections:
            section_info = {
                "name": section.Name.decode().strip('\x00'),
                "virtual_address": hex(section.VirtualAddress),
                "virtual_size": section.Misc_VirtualSize,
                "raw_size": section.SizeOfRawData,
                "entropy": section.get_entropy()
            }
            analysis["sections"].append(section_info)

            # High entropy may indicate packing/encryption
            if section.get_entropy() > 7.0:
                analysis["suspicious_indicators"].append({
                    "type": "HIGH_ENTROPY_SECTION",
                    "section": section_info["name"],
                    "entropy": section.get_entropy()
                })

        return analysis

    def sandbox_execute(self, file_path):
        """
        Execute malware in isolated sandbox
        """
        sandbox_result = {
            "network_activity": [],
            "file_operations": [],
            "registry_operations": [],
            "process_activity": [],
            "behavioral_indicators": []
        }

        # This would integrate with Cuckoo Sandbox or similar
        # Simplified example:

        sandbox_result["behavioral_indicators"] = [
            "Creates scheduled task for persistence",
            "Attempts to delete shadow copies",
            "Encrypts files with .locked extension",
            "Contacts C2 server at 192.168.1.100:443"
        ]

        return sandbox_result
```

---

## Phase 4: Recovery and Resilience

### 4.1 Business Continuity Integration

#### 4.1.1 Disaster Recovery Procedures

**Recovery Time Objectives (RTO) and Recovery Point Objectives (RPO):**
```python
class BCPIntegration:
    """Business Continuity Planning integration"""

    def assess_recovery_priority(self, affected_systems):
        """
        Determine recovery priority based on business criticality
        """
        priorities = {
            "TIER_1_CRITICAL": {
                "rto": "1 hour",
                "rpo": "15 minutes",
                "systems": ["payment_processing", "customer_database"]
            },
            "TIER_2_HIGH": {
                "rto": "4 hours",
                "rpo": "1 hour",
                "systems": ["email", "crm", "erp"]
            },
            "TIER_3_MEDIUM": {
                "rto": "24 hours",
                "rpo": "4 hours",
                "systems": ["reporting", "analytics"]
            },
            "TIER_4_LOW": {
                "rto": "72 hours",
                "rpo": "24 hours",
                "systems": ["archive", "development"]
            }
        }

        recovery_plan = []
        for tier, config in priorities.items():
            affected = [s for s in affected_systems
                       if s in config["systems"]]
            if affected:
                recovery_plan.append({
                    "tier": tier,
                    "systems": affected,
                    "rto": config["rto"],
                    "rpo": config["rpo"],
                    "order": len(recovery_plan) + 1
                })

        return sorted(recovery_plan, key=lambda x: x["order"])

    def validate_backup_integrity(self, backup_id):
        """
        Verify backup is clean and restorable
        """
        validation = {
            "backup_id": backup_id,
            "integrity_check": False,
            "malware_scan": False,
            "restore_test": False,
            "approved_for_recovery": False
        }

        # Check backup integrity
        checksum_valid = self.verify_checksum(backup_id)
        validation["integrity_check"] = checksum_valid

        # Scan for malware
        if checksum_valid:
            scan_result = self.malware_scan_backup(backup_id)
            validation["malware_scan"] = scan_result["clean"]

        # Test restore to isolated environment
        if validation["malware_scan"]:
            restore_test = self.test_restore(backup_id)
            validation["restore_test"] = restore_test["success"]

        # Final approval
        validation["approved_for_recovery"] = all([
            validation["integrity_check"],
            validation["malware_scan"],
            validation["restore_test"]
        ])

        return validation
```

#### 4.1.2 Phased Recovery Process

**Recovery Stages:**
```yaml
# Recovery Workflow
recovery_phases:
  phase_1_emergency_response:
    duration: "0-4 hours"
    objectives:
      - Activate incident response team
      - Isolate affected systems
      - Preserve evidence
      - Assess scope of impact

  phase_2_containment:
    duration: "4-8 hours"
    objectives:
      - Stop spread of incident
      - Identify all affected systems
      - Begin evidence collection
      - Communicate with stakeholders

  phase_3_eradication:
    duration: "8-24 hours"
    objectives:
      - Remove malware/threats
      - Close attack vectors
      - Patch vulnerabilities
      - Validate clean state

  phase_4_recovery:
    duration: "24-72 hours"
    objectives:
      - Restore from clean backups
      - Rebuild compromised systems
      - Reset credentials
      - Implement enhanced monitoring

  phase_5_post_incident:
    duration: "1-2 weeks"
    objectives:
      - Lessons learned review
      - Update procedures
      - Implement preventive measures
      - Security improvements
```

### 4.2 Continuous Improvement

#### 4.2.1 Metrics and KPIs

**Incident Response Dashboard:**
```python
class IncidentMetricsDashboard:
    """Track and visualize incident response metrics"""

    def calculate_metrics(self, incidents, timeframe="30d"):
        """
        Calculate key incident response metrics
        """
        metrics = {
            "mean_time_to_detect": 0,
            "mean_time_to_respond": 0,
            "mean_time_to_contain": 0,
            "mean_time_to_recover": 0,
            "total_incidents": len(incidents),
            "by_severity": {},
            "by_category": {},
            "false_positive_rate": 0,
            "recurrence_rate": 0
        }

        # Calculate MTTD, MTTR, MTTC
        detection_times = []
        response_times = []
        containment_times = []
        recovery_times = []

        for incident in incidents:
            if incident["detection_time"] and incident["occurrence_time"]:
                detection_times.append(
                    (incident["detection_time"] - incident["occurrence_time"]).total_seconds() / 60
                )

            if incident["response_time"] and incident["detection_time"]:
                response_times.append(
                    (incident["response_time"] - incident["detection_time"]).total_seconds() / 60
                )

            if incident["containment_time"] and incident["response_time"]:
                containment_times.append(
                    (incident["containment_time"] - incident["response_time"]).total_seconds() / 60
                )

        metrics["mean_time_to_detect"] = np.mean(detection_times) if detection_times else 0
        metrics["mean_time_to_respond"] = np.mean(response_times) if response_times else 0
        metrics["mean_time_to_contain"] = np.mean(containment_times) if containment_times else 0

        # Categorize incidents
        for incident in incidents:
            # By severity
            severity = incident["severity"]
            metrics["by_severity"][severity] = metrics["by_severity"].get(severity, 0) + 1

            # By category
            category = incident["category"]
            metrics["by_category"][category] = metrics["by_category"].get(category, 0) + 1

        return metrics
```

---

## Appendix: Advanced Topics

### A. Threat Intelligence Feeds

**Recommended Sources:**
- CISA AIS (Automated Indicator Sharing)
- FBI InfraGard
- MS-ISAC Threat Intelligence
- Commercial feeds (CrowdStrike, Recorded Future, etc.)
- Open source (AlienVault OTX, abuse.ch)

### B. Forensic Tool References

**Essential Tools:**
- **Memory Analysis:** Volatility, Rekall, WinDbg
- **Disk Forensics:** Autopsy, FTK Imager, EnCase
- **Network Forensics:** Wireshark, NetworkMiner, Zeek
- **Malware Analysis:** IDA Pro, Ghidra, Cuckoo Sandbox, Any.run
- **Log Analysis:** Splunk, ELK Stack, Graylog

### C. Compliance Mapping

**Regulatory Frameworks:**
- **GDPR Article 33:** 72-hour breach notification
- **HIPAA:** 60-day breach notification
- **PCI-DSS Requirement 12.10:** Incident response plan
- **SOC 2:** Incident management processes
- **ISO 27035:** Incident management standard

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**Document Control:**
- Version: 1.0
- Status: ACTIVE
- Last Review: 2025-12-25
- Next Review: 2026-06-25
- Owner: WIA Security Standards Committee

**弘益人間 (홍익인간) - Benefit All Humanity**

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