Triage Methodology (Phase Sequencing & Decision Engine)

Automated DFIR triage sequencing works by dynamically selecting and ordering evidence-analysis phases based on the actual artifacts present in your case root. The engine enforces phase preconditions, checks completion signals, and reorders phases when high-signal findings trigger break conditions.

Incident response triage for mixed KAPE collections is orchestrated by invoking fixed phase scripts against the case root directory. The methodology processes registry hives, EVTX, and IIS logs while enforcing preconditions and updating the Common Operating Picture progress throughout the investigation.

Yes, this triage methodology drives the generation of consolidated cross-phase synthesis outputs including an IOC master list, unified timelines, attack-path graphs, anomaly detection summaries, and optional CVE attribution based on evidence extracted during the sequenced phases.

Break-condition reordering is fully supported during DFIR phase sequencing. When specific high-signal findings appear during evidence extraction or hunting, the engine dynamically reorders subsequent analysis phases to prioritize the newly identified attack paths and anomalies.

Repeatable and audit-friendly execution is ensured by invoking fixed black-box phase scripts that rely on completion-signal files and per-script audit logs. This idempotent approach allows you to rerun phases against the case root without manual orchestration or duplicate artifact generation.

Timeline analysis and anomaly detection in this workflow support mixed evidence types including Windows KAPE collections, registry hives, EVTX logs, IIS logs, and optional memory images or PCAP files, enabling comprehensive cross-phase synthesis for incident reporting.