Program Highlights
InfosecTrain’s Advanced Threat Hunting Digital Forensics & Incident Response (DFIR) Training is designed for security professionals who want to go beyond theory and build real investigative capability. Spanning 13 modules across 40 hours of instructor-led training, the course combines hands-on labs, real-world attack scenarios, and AI-assisted workflows to develop practical skills across the full investigation lifecycle, from threat hunting and detection engineering to memory forensics, incident response, and executive reporting.
40-Hour LIVE Instructor-led Training
AI-Assisted Workflows Embedded Across Every Module
Integrated Capstone: Simulate a Real Enterprise Breach End-to-End
Hands-on Labs Across Threat Hunting, Forensics, Malware Analysis
Build and Test YARA Rules, SOAR Playbooks & Detection Logic
Master the Investigation Lifecycle: From Alert to Executive Reporting
Learn from Industry Experts with Real-World DFIR Experience
Career Guidance, Mentorship, Extended Post Training Support
Access to Recorded Sessions
Training Schedule
- upcoming classes
- corporate training
- 1 on 1 training
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About Course
Security threats don’t wait, and neither should your investigations. The Advanced Threat Hunting Digital Forensics & Incident Response (DFIR) Training from InfosecTrain is built for security professionals ready to move beyond alert triage and take full ownership of enterprise-scale investigations. Participants develop elite, hands-on skills across threat hunting, digital forensics, incident response, and detection engineering, tackling real attack scenarios from first alert to final report.
AI-assisted workflows are embedded throughout, teaching participants to accelerate investigations without compromising analytical judgment. The course culminates in an integrated capstone challenge that simulates a realistic enterprise breach, from the first alert through to containment, reporting, and post-incident detection backlog creation.
Course Curriculum
- Module 1: Enterprise Threat Hunting and DFIR Operating Model
- Modern SOC L2 and L3 responsibilities
- Threat hunting vs detection engineering vs incident response
- Investigation lifecycle from alert to executive reporting
- ATT&CK-driven hypothesis building
- Evidence types in enterprise investigations
- Telemetry quality and blind spot mapping
- Analyst decision-making during uncertainty
- Common mistakes in L2 to L3 escalation
- Building an investigation notebook
- AI usage boundaries in real investigations
- Hands-On Labs:
- Build the analyst investigation workspace
- Map an enterprise attack story to ATT&CK
- Convert a weak SOC alert into a full investigation plan
- Create a telemetry coverage and blind spot matrix
- Use AI to generate hypotheses, then manually validate or reject them
- Module 2: Production Telemetry, Log Normalization, and SIEM Hunting
- Windows event logs that actually matter
- Sysmon and EDR-style telemetry
- Authentication telemetry from endpoints and domain controllers
- DNS, proxy, firewall, VPN, and web logs
- Cloud and identity log concepts
- OCSF style normalization thinking
- Time synchronization and timestamp issues
- Field mapping across SIEM platforms
- Detection logic portability
- Query writing strategy for SPL, KQL, EQL, Sigma, and SQL style syntax
- Hands-On Labs:
- Ingest or load the prebuilt enterprise telemetry pack
- Normalize raw logs into investigation-ready fields
- Write the same hunt across SPL, KQL, EQL, and Sigma
- Use AI to translate queries, then test for logic drift
- Build a reusable hunt notebook
- Module 3: Detection Engineering in Production
- Detection engineering lifecycle
- Detection objective and data requirement
- Behavior-based vs IOC-based detection
- Atomic detection vs correlation detection
- Thresholds, baselines, and suppression logic
- False positive analysis
- Detection testing with replayed attack data
- Detection tuning without killing visibility
- Detection documentation
- Converting hunts into production detections
- Hands-On Labs:
- Write a detection from an ATT&CK technique
- Test detection against clean and malicious telemetry
- Tune noisy detection without losing true positives
- Convert detection into Sigma and SIEM-specific logic
- Use AI to draft detection logic, then perform analyst QA
- Module 4: Advanced Persistence Hunting
- Registry run keys and autoruns
- Services and drivers
- Scheduled tasks
- WMI event subscriptions
- DLL search order hijacking
- COM hijacking
- Startup folders and logon scripts
- PowerShell profile abuse
- Living off the land persistence
- Persistence timeline reconstruction
- Hands-On Labs:
- Hunt registry persistence using endpoint telemetry
- Investigate suspicious scheduled tasks
- Detect WMI event subscription persistence
- Identify COM hijacking indicators
- Build a persistence timeline from multiple artifacts
- Use AI to cluster persistence evidence, then verify manually
- Module 5: Identity Threat Hunting (Endpoint and Cloud)
- Windows authentication essentials for hunters
- LSASS access and credential dumping indicators
- Credential theft via LOLBins
- DPAPI and browser credential theft indicators
- Reading AD attack signatures without a range: Kerberoasting (4769 RC4), AS-REP roasting (4768 no preauth), Pass-the-Hash (4624 type 3 NTLM anomalies), DCSync (4662 replication GUIDs), Golden and Silver Ticket
- Service account and privileged account abuse hunting
- Cloud identity attacks: OAuth illicit consent grant, device code phishing, AiTM session and token theft, MFA fatigue, PRT abuse, Golden SAML
- Hands-On Labs:
- Analyze failed and successful authentication chains
- Investigate LSASS access from endpoint telemetry
- Identify Kerberoasting and DCSync signatures in prebuilt DC logs
- Hunt OAuth consent abuse and malicious inbox rules in M365
- Detect AiTM token theft and MFA fatigue in sign-in logs
- Use AI to suggest pivots & then validate using raw evidence
- Module 6: Lateral Movement and Remote Execution Hunting
- Admin share abuse
- PsExec style execution
- WMI remote execution
- PowerShell remoting
- RDP abuse
- SMB lateral movement patterns
- WinRM activity
- Remote service creation
- VPN and jump server investigations
- Lateral movement chain reconstruction
- Source host, target host, and user mapping
- Hands-On Labs:
- Hunt remote service creation
- Investigate WMI-based lateral movement
- Trace RDP movement through logs
- Identify suspicious SMB admin share activity
- Use AI to build an ATT&CK Flow Graph
- Module 7: Network Threat Hunting and C2 Detection
- Network hunting methodology
- DNS hunting
- HTTP and HTTPS beaconing
- TLS and certificate indicators
- Domain fronting concepts
- Suspicious user agents
- Long connection and low-and-slow patterns
- DNS tunneling
- Data exfiltration signals
- PCAP to SIEM workflow
- Network timeline reconstruction
- Statistical hunting without overcomplication
- Hands-On Labs:
- Detect beaconing using proxy and DNS logs
- Hunt DNS tunneling from noisy traffic
- Analyze PCAP for C2 behavior
- Detect suspicious TLS patterns
- Module 8: Malware Triage and Analyst-Level Reverse Engineering
- Safe malware handling workflow
- Static triage
- Strings, imports, and sections
- Packer and obfuscation indicators
- Dynamic behavior analysis
- Process, file, registry, and network behavior
- YARA rule development
- Disassembly and decompilation basics in Ghidra
- Anti-analysis recognition as hunting signals
- Injection and shellcode technique identification
- Hands-On Labs:
- Perform static triage of a suspicious binary
- Identify process injection or hollowing indicators
- Draft and test a YARA rule from RE findings
- Ghidra: locate the C2 config and decode obfuscated strings
- Manually unpack a simple packed sample
- Identify the injection technique in a given binary
- Use AI to summarize functions and behaviors from tool output
- Module 9: Memory Forensics & Cloud Threat Hunting
- Memory acquisition considerations
- Volatility workflow
- Process analysis
- DLL and handle analysis
- M365 Unified Audit Log huntin
- Entra ID sign-in and audit hunting
- AWS CloudTrail fundamentals
- Cloud privilege escalation and lateral movement signals
- Hands-On Labs:
- Triage a memory image
- Identify suspicious processes and parent-child anomalies
- Extract command line and network indicators
- Use AI to rank suspicious Volatility output
- Hunt a malicious OAuth app plus exfil inbox rule in M365
- Detect service principal credential addition in Entra audit
- AWS EC2 Analysis & Forensics
- Module 10: Disk Forensics and Enterprise Evidence Recovery
- Evidence handling and forensic soundness
- Disk image triage
- MFT analysis
- Prefetch
- Amcache
- ShimCache
- UserAssist
- Jump Lists
- LNK files
- ShellBags
- Browser artifacts
- Recycle Bin artifacts
- Event log extraction
- Registry hive analysis
- Proving execution, file access, and data staging
- Hands-On Labs:
- Analyze a disk image for attacker activity
- Prove execution using multiple artifacts
- Prove file and folder access
- Recover deleted or staged evidence
- Use AI to reduce timeline noise, then manually validate key events
- Module 11: Incident Response, Containment, and Case Management
- Incident classification
- Scoping the incident
- Evidence priority
- Containment decision making
- Eradication planning
- Communication during an active incident
- Legal and compliance consideration
- Case notes and chain of custody
- Executive reporting vs technical reporting
- Detection backlog creation after incident closure
- Hands-On Labs:
- Convert investigation findings into an incident scope
- Build containment and eradication plan
- Write an executive incident brief
- Write a technical incident report
- Create post-incident detection backlog
- Use AI to draft the first report version
- Module 12: AI-Assisted SOC Workflows
- Where AI helps in DFIR
- Where AI fails in DFIR
- Evidence summarization
- Query generation
- Report drafting
- IOC extraction
- Detection explanation
- Local LLM vs API-based workflow
- Prompt injection risks in evidence
- Hallucination control
- Analyst validation loop
- Hands-On Labs:
- Build an AI-assisted investigation promptbook
- Convert natural language questions into SIEM queries
- Summarize noisy logs without losing evidence
- Extract IOCs from malware and network notes
- Build a case-specific AI evidence assistant using local files
- Module 13: SOAR & Automation
- SOAR fundamentals and playbook as code
- Auto-triage and enrichment (VirusTotal, AbuseIPDB, OTX free APIs)
- Alert to case automation
- Hands-On Labs:
- Build an enrichment and auto-triage playbook in n8n
- Run a phishing alert through triage end-to-end
- Using AI to draft playbook logic
- Module 14: Integrated Capstone – Enterprise Breach Investigation
- Scenario: A user endpoint is compromised through phishing. The attacker establishes persistence, steals credentials, moves laterally, accesses sensitive files, uses C2, and attempts data exfiltration.
- Hands-On Challenge:
- Start with a limited alert context
- Identify initial access evidence
- Confirm persistence
- Investigate credential theft
- Trace lateral movement
- Scope affected users and hosts
- Build incident timeline
- Prepare containment plan
- Prepare containment plan
- Lab Requirements
- To get the most out of this training, participants are recommended to have the following system configuration:
- Hardware
- Laptop or desktop with 8 GB RAM (16 GB recommended)
- 350-500 GB free disk space
- Windows 10/11, macOS, or Ubuntu
- Admin rights to install tools
- Stable internet connection
- Virtualization support enabled
- Lab Environment
- A prebuilt lab environment is provided, including memory images, disk images, network captures, and malware samples. No prior setup is required; all datasets, tools, and lab files are ready from Day 1.
- Tools
- All required DFIR, network analysis, and forensics tools are covered during the course. Software installation is guided by the instructor as part of the training.
- AI Setup
- Supports both local and API-based AI setups, giving participants flexibility based on their hardware. Full guidance is provided during the course; no prior AI tool experience required.
Target Audience
This training is ideal for:
- SOC Analysts
- Tier 1 analysts who want to move into strong Tier 2 roles
- Tier 2 analysts who want to become advanced Tier 3 analysts
- Security analysts who want to move beyond alert triage into full investigation ownership
- Security professionals who are looking to equip AI-based workflows
- Incident Responders
- Responders who want stronger endpoint, identity, memory, disk, and network investigation skills
- Analysts who need to produce clear technical and executive reports
- Threat Hunters
- Professionals who want to build ATT&CK-based hunt hypotheses
- Detection Engineers
- Security engineers building SIEM, EDR, and SOAR detections
- Forensic analysts who want to expand into enterprise threat hunting
- Managers who want to understand what strong L2 and L3 capability should look like
Pre-requisites
Participants are recommended to have:
- Basic understanding of Windows and Linux OS
- Familiarity with networking concepts, SOC operations, and common attack techniques
- Exposure to log analysis, DFIR concepts, and SIEM query writing
- Basic scripting knowledge: PowerShell, Python, or Linux command line
- Willingness to use and validate AI-assisted workflows
- At least 1 year of experience in IT, SOC, security, or equivalent hands-on lab experience
Course Objectives
Upon successful completion of the training, participants will be able to:
- Build and execute ATT&CK-driven threat hunting hypotheses across enterprise environments
- Detect and investigate persistence, lateral movement, and credential abuse using multi-source telemetry
- Hunt identity-based threats across endpoint, Active Directory, and cloud environments, including M365, Entra ID, and AWS
- Perform memory and disk forensics to uncover hidden threats, attacker activity, and forensic artifacts
- Analyze network traffic to identify C2 communication, beaconing, DNS tunneling, and data exfiltration
- Conduct malware triage and analyst-level reverse engineering to extract IOCs and behavioral indicators
- Write and tune production-grade detections across SIEM, EDR, and SOAR platforms
- Build and automate SOC workflows using SOAR playbooks and AI-assisted tooling
- Apply AI-assisted workflows to accelerate investigations while maintaining full analyst validation
- Produce executive-ready and technically defensible incident reports
- Manage the full incident response lifecycle from initial alert to containment and post-incident detection backlog
Vision
Goal
Skill-Building
Mentoring
Direction
Support
Success
Projected increased roles related to Threat Hunting over the next decade.
Incident Response Efficiency in companies with Digital Forensics trained professionals
Organizations plan to hire professionals skilled in Threat Hunting for various cybersecurity operations.
Organizations committed to training existing staff on Threat Hunting and Incident Response best practices using the DFIR framework.
Technology
Healthcare
Retail
Government
Manufacturing
Finance
This course provided a great learning experience with Infosectrain. Initially, I was unfamiliar with threat hunting concepts, but now I’ve gained valuable knowledge. I’m confident that this course, along with the guidance from the trainer, will propel my career forward.
Great learning session with Infosectrain! Special thanks to the trainer for their expertise, especially in the Threat Hunting course.
Overall, the training provided by Infosectrain, including the Threat Hunting sessions, was beneficial. Special thanks to the trainer for their expertise.
The Threat Hunting course by Infosectrain was very informative, and the trainer’s expertise made it enriching. I highly recommend it for anyone looking to enhance their cybersecurity skills.
It was an excellent training session facilitated by Infosectrain. The instructor displayed patience in addressing all our queries, ensuring a comprehensive learning experience. This course provided valuable skill development opportunities. I also recommend considering the Threat Hunting course offered by Infosectrain for further skill enhancement.
I completed the Threat Hunting Professional course from InfosecTrain. I must say it was a great experience with a very knowledgeable trainer and engaging course content.
Frequently Asked Questions
What is Advanced Threat Hunting Digital Forensics & Incident Response (DFIR) Training?
Advanced Threat Hunting Digital Forensics & Incident Response (DFIR) Training is a hands-on cybersecurity program designed to help professionals investigate, contain, and report enterprise-level threats. It covers threat hunting, digital forensics, incident response, detection engineering, malware triage, memory forensics, disk forensics, cloud hunting, SOAR, and AI-assisted SOC workflows.
Who should enroll in this DFIR training?
This training is ideal for SOC analysts, incident responders, threat hunters, detection engineers, forensic analysts, security engineers, and professionals who want to move beyond alert triage into full investigation ownership.
How long is this DFIR training?
This DFIR training includes 40 hours of instructor-led learning with hands-on labs, real-world attack scenarios, AI-assisted workflows, and an integrated enterprise breach capstone.
What are the prerequisites for enrolling in this DFIR training?
Participants are recommended to have a basic understanding of Windows and Linux, networking concepts, SOC operations, common attack techniques, log analysis, DFIR concepts, SIEM query writing, and basic scripting using PowerShell, Python, or Linux command line.
What topics are covered in this DFIR training?
The course covers enterprise threat hunting, SIEM hunting, detection engineering, persistence hunting, identity threat hunting, lateral movement, network threat hunting, malware triage, memory forensics, disk forensics, cloud threat hunting, incident response, SOAR automation, AI-assisted workflows, and enterprise breach investigation.
Are hands-on labs included in this DFIR training?
Yes. The training includes hands-on labs across threat hunting, SIEM queries, detection engineering, persistence hunting, identity attacks, lateral movement, malware analysis, memory forensics, disk forensics, incident response, SOAR automation, and AI-assisted investigation workflows.
Does the course use real-world attack scenarios?
Yes. The course is built around realistic enterprise attack scenarios. Participants investigate attacker activity from first alert to containment and reporting, including persistence, credential theft, lateral movement, C2 activity, data exfiltration, and post-incident detection improvement.
Does the training cover endpoint, identity, network, memory, disk, and cloud investigations?
Yes. The training covers investigations across endpoint telemetry, Active Directory, cloud identity platforms, network logs, PCAPs, memory images, disk images, M365, Entra ID, and AWS CloudTrail.
Does this DFIR training include malware triage and reverse engineering?
Yes. The course covers safe malware handling, static and dynamic triage, behavioral analysis, YARA rule development, Ghidra basics, C2 configuration analysis, and analyst-level reverse engineering.
How are AI-assisted workflows used in this DFIR training?
AI-assisted workflows are used to support hypothesis generation, query translation, evidence summarization, IOC extraction, report drafting, detection explanation, and workflow automation. The course also emphasizes analyst validation so participants learn how to use AI without relying on it blindly.
Do I need prior AI tool experience to complete the course?
No prior AI tool experience is required. The course supports both local and API-based AI setups, and full guidance is provided during the training.
What is included in the integrated capstone challenge?
The capstone simulates a full enterprise breach investigation. Participants start with limited alert context and work through initial access, persistence, credential theft, lateral movement, affected users and hosts, incident timeline creation, containment planning, and executive and technical reporting.
What lab setup is required for this training?
Participants are recommended to have a laptop or desktop with at least 8 GB RAM, 350–500 GB free disk space, admin rights, a stable internet connection, and virtualization support enabled. A prebuilt lab environment with memory images, disk images, network captures, malware samples, tools, and datasets is provided.
How can this DFIR training benefit my career?
This training helps professionals build advanced investigation skills across threat hunting, DFIR, detection engineering, incident response, malware triage, forensics, cloud hunting, SOAR, and AI-assisted SOC workflows. It is especially useful for SOC analysts, incident responders, threat hunters, and security professionals aiming to move into stronger L2, L3, or enterprise investigation roles.
What support is included with the training?
The training includes 40 hours of instructor-led sessions, access to recorded sessions, hands-on labs, expert guidance, career mentorship, extended post-training support, and practical exposure to real-world DFIR tools and workflows.