FOR500 builds comprehensive digital forensics knowledge of Microsoft Windows operating systems providing the means to recover, analyze, and authenticate forensic data, track user activity on the network, and organize findings for use in incident response, internal investigations, intellectual property theft inquiries, and civil or criminal litigation. Use this knowledge to validate security tools, enhance vulnerability assessments, identify insider threats, track hackers, and improve security policies. Detailed and real-world exercises teach the tools and techniques that every investigator should employ step-by-step to solve a forensic case. Newly updated to cover all Windows versions through Windows 11!
Master Windows Forensics - "You Can't Protect the Unknown."
All organizations must prepare for cybercrime occurring on computer systems and within corporate networks. Demand has never been greater for analysts who can investigate crimes such as fraud, insider threats, industrial espionage, employee misuse, and computer intrusions. Corporations, governments, and law enforcement agencies increasingly require trained forensics specialists to perform investigations, recover vital intelligence from Windows systems, and ultimately get to the root cause of the crime. To help solve these cases, SANS is training a new cadre of the world's best digital forensic professionals, incident responders, and media exploitation experts capable of piecing together what happened on computer systems second by second.
FOR500: Windows Forensic Analysis focuses on building in-depth digital forensics knowledge of Microsoft Windows operating systems. You can't protect what you don't know about, and understanding forensic capabilities and available artifacts is a core component of information security. You will learn how to recover, analyze, and authenticate forensic data on Windows systems, track individual user activity on your network, and organize findings for use in incident response, internal investigations, intellectual property theft inquiries, and civil or criminal litigation. You'll be able to validate security tools, enhance vulnerability assessments, identify insider threats, track hackers, and improve security policies. Whether you know it or not, Windows is silently recording an unbelievable amount of data about you and your users. FOR500 teaches you how to mine this mountain of data and use it to your advantage.
Proper analysis requires real data for students to examine. This continually updated course trains digital forensic analysts through a series of hands-on laboratory exercises incorporating evidence found on the latest technologies, including Microsoft Windows versions 10 and 11, Office and Microsoft 365, Google Workspace (G Suite), cloud storage providers, Microsoft Teams, SharePoint, Exchange, and Outlook. Students will leave the course armed with the latest tools and techniques and prepared to investigate even the most complicated systems they might encounter. Nothing is left out - attendees learn to analyze everything from legacy Windows 7 systems to just-discovered Windows 11 artifacts.
FOR500: Windows Forensic Analysis will teach you to:
Conduct in-depth forensic analysis of Windows operating systems and media exploitation on Windows XP, Windows 7, Windows 8/8.1, Windows 10, Windows 11 and Windows Server products.
Identify artifact and evidence locations to answer crucial questions, including application execution, file access, data theft, external device usage, cloud services, device geolocation, file transfers, anti-forensics, and detailed system and user activity.
Become tool-agnostic by focusing your capabilities on analysis instead of how to use a particular tool.
Extract critical findings and build an in-house forensic capability via a variety of free, open-source, and commercial tools provided within the SANS Windows SIFT Workstation.
FOR500 starts with an intellectual property theft and corporate espionage case taking over six months to create. You work in the real world, so your training should include real-world practice data. Our instructor course development team used incidents from their own investigations and experiences to create an incredibly rich and detailed scenario designed to immerse students in an actual investigation. The case demonstrates the latest artifacts and technologies an investigator might encounter while analyzing Windows systems in the enterprise. The detailed workbook teaches the tools and techniques that every investigator should employ step by step to solve a forensic case. The tools provided form a complete forensic lab that can be used after the end of class.
Please note that this is an analysis-focused course; FOR500 does not cover the basics of evidentiary handling, the "chain of custody," or introductory drive acquisition. The course authors update FOR500 aggressively to stay current with the latest artifacts and techniques discovered. This course is perfect for you if you are interested in in-depth and current Microsoft Windows Operating System forensics and analysis for any incident that occurs. If you have not updated your Windows forensic analysis skills in the past three years or more, this course is essential.
Build an in-house digital forensic capability that can rapidly answer important business questions and investigate crimes such as fraud, insider threats, industrial espionage, employee misuse, and computer intrusions.
Enable more capable analysts, threat hunters, and incident response team members who can use deep-dive digital forensics to help solve Windows data breach cases, perform damage assessments, and develop indicators of compromise.
Understand the wealth of telemetry available in the Windows Enterprise, at the endpoint and in cloud resources like Microsoft 365, Exchange, Unified Audit Logs, cloud storage, and chat clients
Identify forensic artifact and evidence locations to answer crucial questions, including application execution, file access, data theft, external device usage, cloud services, device geolocation, file tranfers, anti-forensics, and detailed system and user activity
Receive a pre-built forensic lab setup via a variety of free, open-source, and commercial tools provided within the SANS Windows SIFT Workstation
Build tool-agnostic investigative capabilities by focusing on analysis techniques instead of how to use a particular tool. Deeper understanding of concepts, core forensic artifacts, and stronger analysis skills make any available tool more effective for attendees.
You Will Be Able To
Perform in-depth Windows forensic analysis by applying peer-reviewed techniques focusing on Windows 7, Windows 8/8.1, Windows 10, Windows 11, and Windows Server products
Use state-of-the-art forensic tools and analysis methods to detail nearly every action a suspect accomplished on a Windows system, including who placed an artifact on the system and how, program execution, file/folder opening, geolocation, browser history, profile USB device usage, cloud storage usage, and more
Perform “fast forensics” to rapidly assess and triage systems to provide quick answers and facilitate informed business decisions
Uncover the exact time that a specific user last executed a program through Registry and Windows artifact analysis, and understand how this information can be used to prove intent in cases such as intellectual property theft, hacker-breached systems, and traditional crimes
Determine the number of times files have been opened by a suspect through browser forensics, shortcut file analysis (LNK), email analysis, and Windows Registry parsing
Audit cloud storage usage, including detailed user activity, identifying deleted files, signs of data exfiltration, and even uncovering detailed information on files available only in the cloud
Identify items searched by a specific user on a Windows system to pinpoint the data and information that the suspect was interested in finding, and accomplish detailed damage assessments
Use Windows Shell Bag analysis tools to articulate every folder and directory a user or attacker interacted with while accessing local, removable, and network drives
Determine each time a unique and specific USB device was attached to the Windows system, the files and folders accessed on it, and what user plugged it in by parsing Windows artifacts such as Registry hives and Event Log files
Learn Event Log analysis techniques and use them to determine when and how users logged into a Windows system, whether via a remote session, at the keyboard, or simply by unlocking a screensaver
Mine the Windows Search Database to uncover a massive collection of file metadata and even file content from local drives, removable media, and applications like Microsoft Outlook, OneNote, SharePoint, and OneDrive.
Determine where a crime was committed using Registry data and pinpoint the geolocation of a system by examining connected networks and wireless access points
Use browser forensic tools to perform detailed web browser analysis, parse raw SQLite and ESE databases, and leverage session recovery artifacts to identify web activity, even if privacy cleaners and in-private browsing software are used
Parse Electron Application databases allowing the investigation of hundreds of third-party applications including most chat clients
Specifically determine how individuals used a system, who they communicated with, and files that were downloaded, modified, and deleted
Windows Forensics Course Topics
The Course Is Fully Updated to Include the Latest Windows XP, 7, 8, 8.1, 10, 11 and Server 2008/2012/2016/2019/2022 Artifacts, Tools, and Techniques
Windows Operating Systems Focus: Windows 7, Windows 8/8.1, Windows 10, Windows 11, Server 2008/2012/2016/2019/2022
Windows File Systems (NTFS, FAT, exFAT)
Advanced Evidence Acquisition Tools and Techniques
Shell Item Forensics
Shortcut Files (LNK) - Evidence of File Opening
ShellBags - Evidence of Folder Opening
JumpLists - Evidence of File Opening and Program Execution
Windows Artifact Analysis
Browser and Webmail Analysis
Microsoft Office Document Analysis
System Resource Usage Database
Windows Search Index Forensics
Windows Recycle Bin Analysis
File and Picture Metadata Tracking and Examination
Myriad Application Execution Artifacts, including Several New to Windows 10 and 11
Cloud Storage File and Metadata Examinations
OneDrive and OneDrive for Business, Dropbox, Google Drive, Google Workspace, and Box
Email Forensics (Host, Server, Web), including Microsoft 365 and G Workspace (G Suite)
Microsoft Unified Audit Logging
Event Log Analysis
Chrome, Edge, Internet Explorer, and Firefox Browser Forensics
Chat clients, including Microsoft Teams and Skype, based on the Electron framework.
Microsoft 365 SharePoint, OneDrive, Teams, and Email
Google Workspace (G Suite) Applications and Logging
Deleted Registry Key and File Recovery
Recovering Missing Data from Registry and ESE Database .log Files
Data Recovery, String Searching and File Carving
Examination of Cases Involving Windows 7 through Windows 11
Media Analysis and Exploitation to:
Track User Communications Using a Windows Device (Email, Chat, Webmail)
Identify Files Transferred to or from a Device
Determine the Exact Time and Number of Times a Suspect Executed a Program
Show When Any File Was First and Last Opened by a Suspect
Prove How Long an Application was Running and How Much Network Data was Sent and Received
Determine If a Suspect Had Knowledge of a Specific File
Show the Exact Physical Location of the System
Track and Analyze Removable Media and USB Mass Storage Class Devices
Show How the Suspect Logged on to the Machine via the Console, RDP, or Network
Recover and Examine Browser Artifacts, including Those from Private Browsing Mode
Extract Chat Messages from A Variety of Chat Clients
Recover Email from Servers, Cloud Instances, and Endpoint Residue Like Local Archives and the Windows Search Database
Discover the Use of Anti-Forensics, including File Wiping, Time Manipulation, and Application Removal
SANS labs provide hands-on experience that reinforces course concepts and learning objectives. This course includes lab instructions with a step-by-step electronic workbook that's directly tied to the material to develop skills in an hands-on environment.
lab 1.1 - Mounting Disk Images
lab 1.2 - Triage Imaging with KAPE
lab 1.3 - Mounting Triage VHDX Evidence
lab 1.4 - Memory Carving and MFT Parsing
lab 2.1 - User Account Profiling
lab 2.2 - System Profiling
lab 2.3 - User Activity Profiling via NTUSER.DAT
lab 2.4 - Application Execution Analysis
lab 2.5 - Cloud Storage Forensics - OneDrive
lab 2.6 - Cloud Storage Forensics - Google Drive
lab 3.2 - LNK Shell Item Analysis
lab 3.3 - Jump List and ShellBags Shell Item Analysis
lab 3.4 - USB Profiling and Analysis
lab 4.1 - Email and Unified Audit Log Forensics
lab 4.2 - Windows Search Database and Recycle Bin Analysis
lab 4.3 - System Resource Database (SRUM) Analysis
lab 4.4 - Event Log Analysis
lab 5.1 - Automating Artifact Processing with KAPE
lab 5.2 - Chrome Browser Forensics
lab 5.3 - Edge and Internet Explorer Analysis
lab 5.4 - Firefox and Electron Application Forensics
lab 6.1 - FOR500 Forensic Challenge
What You Will Receive
Windows 10 Enterprise version of the SIFT Workstation Virtual Machine with over 200 commercial, open-source, and freeware Digital Forensics and Incident Response (DFIR) tools prebuilt into the environment
Trial licenses for the following commercial tool suites:
The Windows Forensic Analysis course starts with an examination of digital forensics in today's interconnected environments and discusses challenges associated with mobile devices, tablets, cloud storage, and modern Windows operating systems. Hard drive and digital media sizes are increasingly difficult and time-consuming to handle appropriately in digital cases. Being able to acquire data in an efficient and forensically sound manner is crucial to every investigator today. In this course section, we review the core techniques while introducing new triage-based acquisition and extraction capabilities that will increase the speed and efficiency of the acquisition process. We demonstrate how to acquire memory, the NTFS MFT, Windows logs, Registry, and critical files in minutes instead of the hours or days currently spent on acquisition.
We also begin processing our collected evidence using stream-based and file-carving-based extraction capabilities employing both commercial and open-source tools and techniques. Students come away with the knowledge necessary to target the specific data needed to rapidly answer fundamental questions in their cases.
Install the Windows SIFT Workstation and get oriented with its capabilities
Undertake advanced triage-based acquisition and imaging resulting in rapid acquisition
Mount acquired disk images and evidence
Carve important files from free space
Recover critical user data from the pagefile, hibernation file, memory images, and unallocated space
Recover chat sessions, web-based email, social networking, and private browsing artifacts
Parse the wealth of metadata information available in the NTFS Master File Table
Windows Operating System Components
Key Differences in Modern Windows Operating Systems
Core Forensic Principles
Determining Your Scope
Creating and Investigative Plan
Live Response and Triage-Based Acquisition Techniques
RAM Acquisition and Following the Order of Volatility
Triage-Based Forensics and Fast Forensic Acquisition
Registry and Locked File Extraction
Leveraging the Volume Shadow Service
KAPE Triage Collection
Windows Image Mounting and Examination
NTFS File System Overview
Document and File Metadata
Volume Shadow Copies
File and Stream Carving
Principles of Data Carving
Recovering File System Metadata
File and Stream Carving Tools
Custom Carving Signatures
Memory, Pagefile, and Unallocated Space Analysis
Artifact Recovery and Examination
Chat Application Analysis
Internet Explorer, Edge, Firefox, Chrome, and InPrivate Browser Recovery
Email and Webmail, including Yahoo, Outlook.com, and Gmail
Our journey continues with the Windows Registry, where the digital forensic investigator will learn how to discover critical user and system information pertinent to almost any investigation. You'll learn how to navigate and analyze the Registry to obtain user profile and system data. During this course section, we will demonstrate investigative methods to prove that a specific user performed keyword searches, executed specific programs, opened and saved files, perused folders, and used removable devices.
Data is moving rapidly to the cloud, constituting a significant challenge and risk to the modern enterprise. Cloud storage applications are nearly ubiquitous on both consumer and business systems, causing interesting security and forensic challenges. In a world where some of the most important data is only present on third-party systems, how do we effectively accomplish our investigations? In this section we will dissect OneDrive and OneDrive for Business, Google Drive, Google Workspace (G Suite), Dropbox, and Box applications, deriving artifacts present in application logs and left behind on the endpoint. We'll demonstrate how to discover detailed user activity, the history of deleted files, content in the cloud, and content cached locally. Solutions to the very real challenges of forensic acquisition and proper logging are all discussed. Understanding what can be gained through analysis of these popular applications will also make investigations of less common cloud storage solutions easier.
Throughout this course section, students will use their skills in a real hands-on case, exploring and analyzing a rich set of evidence.
Profile a computer system using evidence found in the Windows Registry
Conduct a detailed profile of user activity using Registry evidence
Examine which applications a user executed by examining Registry-based UserAssist, Prefetch, Capability/AccessManager, FeatureUsage, Background Activity Monitor data, and others
Determine which files and folders a user opened and interacted with via multiple Registry keys tracking user interactions
Examine recently opened Microsoft 365 and SharePoint files and determine first and last open times
Identify critical folders accessed by a user via the Common Dialog and Open/Save keys in the Registry
Perform cloud storage forensics, recovering information on local files, cloud-only files, and deleted items available in logs, application metadata databases, and host-based artifacts.
Registry Forensics In-Depth
Hives, Keys, and Values
Registry Last Write Time
Deleted Registry Key Recovery
Identify Dirty Registry Hives and Recover Missing Data
Rapidly Search and Timeline Multiple Registry Hives
Profile Users and Groups
Discover Usernames and Relevant Security Identifiers
Last Failed Login
Local versus Domain Account Profiling
Core System Information
Identify the Current Control Set
System Name and Version
Document the System Time Zone
Audit Installed Applications
Wireless, Wired, VPN, and Broadband Network Auditing
Perform Device Geolocation via Network Profiling
Identify System Updates and Last Shutdown Time
Registry-Based Malware Persistence Mechanisms
Identify Webcam and Microphone Usage by Illicit Applications
User Forensic Data
Evidence of File Downloads
Office and Microsoft 365 File History Analysis
Windows 7, Windows 8/8.1, Windows 10/11 Search History
Typed Paths and Directories
Search for Documents with Malicious Macros Enabled
Open Save/Run Dialog Evidence
Application Execution History via UserAssist, Prefetch, System Resource Usage Monitor (SRUM), FeatureUsage, and BAM/DAM
Cloud Storage Forensics
OneDrive Files on Demand
Microsoft OneDrive for Business
OneDrive Unified Audit Logs
Google Drive for Desktop
Google Workspace (G Suite) Logging
Google Protobuf Data Format
Synchronization and Timestamps
Forensic Acquisition Challenges
User Activity Enumeration
Automating SQLite Database Parsing
Being able to show the first and last time a file or folder was opened is a critical analysis skill. Shell item analysis, including shortcut (LNK), Jump List, and ShellBag artifacts, allows investigators to quickly pinpoint the times of file and folder usage per user. The knowledge obtained by examining shell items is crucial to perform damage assessments, track user activity in intellectual property theft cases, and track where hackers spent time in the network.
Removable storage device investigations are an essential part of performing digital forensics. In this course section, students will learn how to perform in-depth USB device examinations on all modern Windows versions. You will learn how to determine when a storage device was first and last plugged in, its vendor/make/model, drive capacity, and even the unique serial number of the device used.
Understand the difference between mass storage class (MSC), human interface devices (HID), and media transfer protocol (MTP) devices
Track USB devices and BYOD devices connected to the system using the Registry, event logs, and file system artifacts.
Determine first and last connected times of USB devices
Determine last removal time of USB devices
Explore the new removable device auditing features introduced in Windows 8 and Windows 10
Use shortcut (LNK) file analysis to determine first/last times a file was opened, and track files and folders present on removable media and across network shares
Use Shell Bag Registry Key Analysis to audit accessed folders
Use Jump List examination to determine when files were accessed by specific programs.
Shell Item Forensics
Shortcut Files (LNK) - Evidence of File Opening
Windows 7-10 Jump Lists - Evidence of File Opening and Program Execution
ShellBag Analysis - Evidence of Folder Access
USB and BYOD Forensic Examinations
Unique Serial Number
Last Drive Letter
MountPoints2 and Drive Mapping Per User (Including Mapped Shares)
Volume Name and Serial Number
Username that Used the USB Device
Time of First USB Device Connection
Time of Last USB Device Connection
Time of Last USB Device Removal
Auditing BYOD Devices at Scale
Identify Malicious HID USB Devices
Depending on the type of investigation and authorization, a wealth of evidence can be unearthed through the analysis of email files. Recovered email can bring excellent corroborating information to an investigation, and its informality often provides very incriminating evidence. Finding and collecting email is often one of our biggest challenges as it is common for users to have email existing simultaneously on their workstation, on the company email server, on a mobile device, and in multiple cloud or webmail accounts.
The Windows Search Index can index up to a million items on the file system, including file content, email, and over 600 kinds of metadata per file. It is an under-utilized resource providing profound forensic capabilities. Similarly, the System Resource Usage Monitor (SRUM), one of our most exciting digital artifacts, can help determine many important user actions, including network usage per application and historical VPN and wireless network usage. Imagine the ability to audit network usage by cloud storage and identify excessive usage by remote access tools even after execution of counter-forensic programs
Finally, Windows event log analysis has solved more cases than possibly any other type of analysis. Windows 11 now includes over 300 logs, and understanding the locations and content of the available log files is crucial to the success of any investigator. Many researchers overlook these records because they do not have adequate knowledge or tools to get the job done efficiently. This section arms investigators with the core knowledge and capability to maintain and build upon this crucial skill for many years to come.
Employ best-of-breed forensic tools to search for relevant email and file attachments in large data sets
Analyze message headers and gauge email authenticity using SPF and DKIM
Understand how Extended MAPI Headers can be used in an investigation
Effectively collect evidence from Exchange, Microsoft 365, and Google Workspace (G Suite)
Learn the latest on Unified Audit Logs in Microsoft 365
Search for webmail and mobile email remnants
Use forensic software to recover deleted objects from email archives
Gain experience with a commercial email forensics and e-discovery suite
Extract and review document metadata present in email archives
Understand the tools and logs necessary to respond to business email compromise events
Analyze the various versions of the Windows Recycle Bin
Use the System Resource Usage Monitor (SRUM) to answer questions with data never before available in Windows forensics
Track cloud storage usage hour by hour on a target system
Parse the Windows Search Index and take advantage of extended metadata collection
Merge event logs and perform advanced filtering to easily get through millions of events
Profile account usage and determine logon session length
Identify evidence of time manipulation on a system
Supplement registry analysis with BYOD device auditing
Analyze historical records of wireless network associations and geolocate a device
Evidence of User Communication
How Email Works
Email Header Examination
Determining a Sender's Geographic Location
Extended MAPI Headers
Host-Based Email Forensics
Exchange Recoverable Items
Exchange and M365 Evidence Acquisition and Mail Export
Exchange and M365 Compliance Search and eDiscovery
Unified Audit Logs in Microsoft 365
Google Workspace (G Suite) Logging
Recovering Data from Google Workspace Users
Web and Cloud-Based Email
Email Searching and Examination
Mobile Email Remnants
Business Email Compromise Investigations
Forensicating Additional Windows OS Artifacts
Windows Search Index Database Forensics
Extensible Storage Engine (ESE) Database Recovery and Repair
Windows Thumbcache Analysis
Windows Recycle Bin Analysis (XP, Windows 7-10)
System Resource Usage Monitor (SRUM)
Connected Networks, Duration, and Bandwidth Usage
Applications Run and Bytes Sent/Received Per Application
Application Push Notifications
Windows Event Log Analysis
Event Logs that Matter to a Digital Forensic Investigator
EVTX and EVT Log Files
Track Account Usage, including RDP, Brute Force Password Attacks, and Rogue Local Account Usage
Prove System Time Manipulation
Track BYOD and External Devices
Microsoft Office Alert Logging
Geo-locate a Device via Event Logs
With the increasing use of the web and the shift toward web-based applications and cloud computing, browser forensic analysis is a critical skill. During this section, students will comprehensively explore web browser evidence created during the use of Internet Explorer, Microsoft Edge, Firefox, and Google Chrome. The hands-on skills taught here, such as SQLite and ESE database parsing, allow investigators to extend these methods to nearly any browser they encounter. Students will learn how to examine every significant artifact stored by the browser, including cookies, visit and download history, Internet cache files, browser extensions, and form data. We will show you how to find these records and identify the common mistakes investigators make when interpreting browser artifacts. You will also learn how to analyze some of the more obscure (and powerful) browser artifacts, such as session restore, HTML5 web storage, zoom levels, predictive site prefetching, and private browsing remnants. Browser synchronization is explained, providing investigative artifacts derived from other devices in use by the subject of the investigation. Finally, skills to investigate Chromium-based Electron Applications are introduced, opening capabilities to investigate hundreds of third-party Windows applications using this framework, including chat clients like Discord, Signal, Skype, Microsoft Teams, Slack, WhatsApp, Yammer, Asana, and more.
Throughout the section, students will use their skills in real hands-on cases, exploring evidence created by Chrome, Firefox, Microsoft Edge, and Internet Explorer correlated with other Windows operating system artifacts.
Learn to manually parse SQLite databases from Firefox, Chrome, and Microsoft Edge
Explore the similarities and differences between Google Chrome and Microsoft Edge
Track a suspect's activity in browser history and cache files and identify local file access
Analyze artifacts found within the Extensible Storage Engine (ESE) database format
Examine which files a suspect downloaded
Determine URLs that suspects typed, clicked on, bookmarked, or were merely re-directed to while web browsing
Identify anti-forensics activity and re-construct private browsing sessions
Investigate browser auto-complete and form data, bringing the investigation closer to a "hands-on keyboard"
Learn how each browser synchronizes data with other devices and how to leverage synchronized data to audit activity occurring on previously unknown user devices like mobile phones, tablets, and other workstations.
Recover Microsoft Teams chats via local Electron Application databases
Understanding Browser Timestamps
Chrome File Locations
Correlating URLs and Visits Tables for Historical Context
History and Page Transition Types
Chrome Preferences File
Web Data, Shortcuts, and Network Action Predictor Databases
Web Storage, IndexDB, and the HTML5 File System
Chrome Session Recovery
Chrome Profiles Feature
Chromium Snapshots folder
Identifying Cross-Device Chrome Synchronization
Chromium Edge vs. Google Chrome
History, Cache, Cookies, Download History, and Session Recovery
Microsoft Edge Collections
Edge Internet Explorer Mode
Chrome and Edge Extensions
Edge Artifact Synchronization and Tracking Multiple Profiles
Edge HTML and the Spartan.edb Database
Reading List, WebNotes, Top Sites, and SweptTabs
Internet Explorer Essentials and the Browser That Will Not Die
WebCache.dat Database Examination
Internet Explorer and Local File Access
Electron Applications and Chat Client Forensics
Electron Application Structure
Electron Chromium Cache
LevelDB Structure and Tools
Manual Parsing of LevelDB
Specialized LevelDB parsers
Firefox Artifact Locations
SQLite Files and Firefox Quantum Updates
Firefox Cache2 Examinations
Detailed Visit Type Data
Firefox Cross-Device Synchronization
Private Browsing and Browser Artifact Recovery
Chrome, Edge, and Firefox Private Browsing
Investigating the Tor Browser
Identifying Selective Database Deletion
SQLite and ESE Database Carving and Examination of Additional Browser Artifacts
DOM and Web Storage Objects
Rebuilding Cached Web Pages
Capturing Stored Browser Credentials
Nothing will prepare you more as an investigator than a full hands-on challenge that requires you to use the skills and knowledge presented throughout the course. With the option to work individually or in teams, students will be provided new evidence to analyze, and the exercise will step them through the entire case flow, including proper acquisition, analysis, and reporting of investigative findings. Fast forensics techniques will be used in order to rapidly profile computer usage and discover the most critical pieces of evidence to answer investigative questions.
This complex case involves an investigation into one of the most recent versions of the Windows operating system. The evidence is from real devices and provides the most realistic training opportunity currently available. Solving the case requires students to use all of the skills gained from each of the previous course sections.
The section concludes with a mock trial involving presentations of the evidence collected. The team with the best in-class presentation and documentation wins the challenge - and solves the case!
Full-length Windows 10 forensic challenge
Bonus: One additional complete take home exercise to continue honing your skills!
Digital Forensics Capstone
Process and Triage a New Full Set of Evidence
Find Critical Evidence Following the Evidence Analysis Methods Discussed Throughout the Week
Examine Memory, Registry, Chat, Browser, Recovered Files, Synchronized Artifacts, Installed Malware, and More
Build an Investigative Timeline
Answer Critical Investigative Questions with Factual Evidence
Practice Executive Summary and Report Generation
Present Technical Case Findings
GIAC Certified Forensic Examiner
The GIAC Certified Forensic Examiner (GCFE) certification validates a practitioner’s knowledge of computer forensic analysis, with an emphasis on core skills required to collect and analyze data from Windows computer systems. GCFE certification holders have the knowledge, skills, and ability to conduct typical incident investigations including e-Discovery, forensic analysis and reporting, evidence acquisition, browser forensics and tracing user and application activities on Windows systems.
Windows Forensics and Data Triage
Windows Registry Forensics, USB Devices, Shell Items, Email Forensics and Log Analysis
Advanced Web Browser Forensics (Chrome, Edge, Firefox)
There are no prerequisite courses required to take this course. The artifacts and tool-agnostic techniques you will learn will lead to the successful analysis of any cyber incident and crime involving a Windows Operating System.
Important! Bring your own system configured according to these instructions.
A properly configured system is required to fully participate in this course. If you do not carefully read and follow these instructions, you will not be able to fully participate in hands-on exercises in your course. Therefore, please arrive with a system meeting all of the specified requirements.
Back up your systembefore class. Better yet, use a system without any sensitive/critical data. SANS is not responsible for your system or data.
MANDATORY FOR500 SYSTEM HARDWARE REQUIREMENTS
CPU: 64-bit Intel i5/i7 (8th generation or newer), or AMD equivalent. A x64 bit, 2.0+ GHz or newer processor is mandatory for this class.
CRITICAL: Apple systems using the M1/M2 processor line cannot perform the necessary virtualization functionality and therefore cannot in any way be used for this course.
BIOS settings must be set to enable virtualization technology, such as "Intel-VTx" or "AMD-V" extensions.Be absolutely certain you can access your BIOS if it is password protected, in case changes are necessary.
16GB of RAM or more is required.
300GB of free storage space or more is required.
At least one available USB 3.0 Type-A port. A Type-C to Type-A adapter may be necessary for newer laptops. Some endpoint protection software prevents the use of USB devices, so test your system with a USB drive before class.
Wireless networking (802.11 standard) is required. There is no wired Internet access in the classroom.
Additional optional components for this course:
A USB storage device is necessary to complete one optional exercise in the course. The storage size of the USB media should be larger than the amount of RAM in the laptop.
MANDATORY FOR500 HOST CONFIGURATION AND SOFTWARE REQUIREMENTS
Your host operating system must be the latest version of Windows 10, Windows 11, or macOS 10.15.x or newer.
Fully update your host operating system prior to the class to ensure you have the right drivers and patches installed.
Linux hosts are not supported in the classroom due to their numerous variations. If you choose to use Linux as your host, you are solely responsible for configuring it to work with the course materials and/or VMs.
Local Administrator Access is required. (Yes, this is absolutely required. Don't let your IT team tell you otherwise.) If your company will not permit this access for the duration of the course, then you should make arrangements to bring a different laptop.
You should ensure that antivirus or endpoint protection software is disabled, fully removed, or that you have the administrative privileges to do so. Many of our courses require full administrative access to the operating system and these products can prevent you from accomplishing the labs.
Any filtering of egress traffic may prevent accomplishing the labs in your course. Firewalls should be disabled or you must have the administrative privileges to disable it.
Download and install VMware Workstation Pro 16.2.X+ or VMware Player 16.2.X+ (for Windows 10 hosts), VMware Workstation Pro 17.0.0+ or VMware Player 17.0.0+ (for Windows 11 hosts), or VMWare Fusion Pro 12.2+ or VMware Fusion Player 11.5+ (for macOS hosts) prior to class beginning.If you do not own a licensed copy of VMware Workstation Pro or VMware Fusion Pro, you can download a free 30-day trial copy from VMware. VMware will send you a time-limited serial number if you register for the trial at their website. Also note that VMware Workstation Player offers fewer features than VMware Workstation Pro. For those with Windows host systems, Workstation Pro is recommended for a more seamless student experience.
On Windows hosts, VMware products might not coexist with the Hyper-V hypervisor. For the best experience, ensure VMware can boot a virtual machine. This may require disabling Hyper-V. Instructions for disabling Hyper-V, Device Guard, and Credential Guard are contained in the setup documentation that accompanies your course materials.
Download and install7-Zip(for Windows Hosts) orKeka(for macOS hosts). These tools are also included in your downloaded course materials.
Your course media is delivered via download. The media files for class can be large. Many are in the 40-50GB range, with some over 100GB. You need to allow plenty of time for the download to complete. Internet connections and speed vary greatly and are dependent on many different factors. Therefore, it is not possible to give an estimate of the length of time it will take to download your materials. Please start your course media downloadsas soon as you get the link. You will need your course media immediately on the first day of class. Do not wait until the night before class to start downloading these files.
Your course materials include a "Setup Instructions" document that details important steps you must take before you travel to a live class event or start an online class. It may take 30 minutes or more to complete these instructions.
Your class uses an electronic workbook for its lab instructions. In this new environment, a second monitor and/or a tablet device can be useful for keeping class materials visible while you are working on your course's labs.
If you have additional questions about the laptop specifications, please email@example.com
"After 30 years in law enforcement, three capabilities immediately rise to the top of my list when I think of what makes a great digital forensic analyst: superior technical skill, sound investigative methodology, and the ability to overcome obstacles. This course was designed to impart these critical skills to students. Unlike many other training courses that focus on teaching a single tool, FOR500 provides training on many tools. While there are some exceptional tools available, forensic analysts need a variety of tools in their arsenal to be able to pick and choose the best one for each task. However, forensic analysts are not great because of the tools they use, but because they artfully apply the right investigative methodology to each analysis. A carpenter can be a master with all his tools and still not know how to build a house. FOR500 teaches analysts to apply digital forensic methodologies to a variety of case types and situations, enabling them to apply the right methodology to achieve the best outcome in the real world. Finally, the course presents the problem-solving skills necessary to be a truly successful forensic analyst. Almost immediately after starting your forensic career, you will learn that each forensic analysis presents its own unique challenges. A technique that worked flawlessly for previous examinations may not work for the next one. A good forensic analyst must be able to overcome obstacles through advanced troubleshooting and problem-solving. FOR500 gives students the foundation to solve future problems, overcome obstacles, and become great forensic analysts. No matter if you are new to the forensic community or have been doing forensics for years, FOR500 is a must-have course." - Ovie Carroll
"Former students have contacted me regularly about how they were able to use their digital forensic skills in very real situations that were part of the nightly news cycle. The skills you learn in this class are used directly to stop evil. Graduates of FOR500 are the front-line troops deployed when you need accurate digital forensic, incident response, and media exploitation analysis. From analyzing terrorist laptops and data breaches to investigating insider intellectual property theft and fraud, SANS digital forensic graduates are battling and winning the war on crime and terror. Graduates have directly contributed to solving some of the toughest cases out there because they have learned how to properly conduct analyses and run investigations. It brings me great comfort knowing that this course places the correct methodology and knowledge in the hands of responders who thwart the plans of criminals or foreign attacks. Graduates are doing just that on a daily basis. I am proud that FOR500 helped prepare them to solve cases and fight crime." - Rob Lee
"Digital forensics has never been more in demand than it is today. Zettabytes of data are created yearly, and forensic examiners will increasingly be called in to separate the wheat from the chaff. For better or worse, digital artifacts are recorded for almost every action, and the bar has been raised for investigators working to repel computer intrusions, stop intellectual property theft, and put bad actors in jail. We wrote this course as the forensics training we wish would have been available early in our careers. Keeping up with the cutting edge of forensics is daunting, but with frequent updates I am confident this course provides the most up-to-date training available, whether you are just starting out or are looking to add new skills to your forensic arsenal." - Chad Tilbury
"Ovie has been great as an instructor for this course. His knowledge and passion to share his insight with us has excited me in learning and reviewing the case materials again even after lessons. I stayed back to spend extra time to read and learn so that I could prepare in anticipation of what he is offering us the next morning. He conducts start-of-the-day recaps and end-of-the-day pop quizzes to tie in knowledge that would have otherwise been just 'another artifact' that was taught. He showed us how to think critically, to tell the story, and to always ask questions." - Yao Guang Tan
Ways to Learn
Cybersecurity learning – at YOUR pace! OnDemand provides unlimited access to your training wherever, whenever. All labs, exercises, and live support from SANS subject matter experts included.
The full SANS experience live at home! Get the ultimate in virtual, interactive SANS courses with leading SANS instructors via live stream. Following class, plan to kick back and enjoy a keynote from the couch.
In Person (6 days)
Did someone say ALL-ACCESS? On-site immersion via in-classroom course sessions led by world-class SANS instructors fill your day, while bonus receptions and workshops fill your evenings.
Who Should Attend FOR500?
Information security professionals who want to learn the in-depth concepts of Windows digital forensics investigations
Incident response team members who need to use deep-dive digital forensics to help solve their Windows data breach and intrusion cases, perform damage assessments, and develop indicators of compromise.
Law enforcement officers, federal agents, and detectives who want to become deep subject-matter experts on digital forensics for Windows-based operating systems
Media exploitation analysts who need to master tactical exploitation and Document and Media Exploitation (DOMEX)
Anyone interested in a deep understanding of Windows forensics who has a background in information systems, information security, and computers
NICE Framework Work Roles
Cyber Crime Investigator (OPM 221)
Cyber Defense Forensics Analyst (OPM 212)
Law Enforcement/Counter Intelligence Forensics Analyst (OPM211)