When responding to an incident, time is one of the most valuable resources a digital forensics investigator has. KAPE helps DFIR teams rapidly collect and process the most important forensic artifacts.

Welcome back, aspiring investigators!

In our previous work, we started building a foundation in Windows registry forensics. Many of you likely noticed just how deep Windows records user activity and system behavior. The operating system keeps track of actions, configurations, and changes in far more places than most people realize. Even when a user attempts to delete or clean up evidence, traces often remain elsewhere, preserved in backups, logs, or secondary registry locations. From a forensic perspective, this persistence is valuable, as it allows investigators to reconstruct actions even when someone tries to hide them.

Of course, from a privacy standpoint, this same behavior is a double-edged sword. Anyone who cares deeply about privacy should at least understand why anti-forensic techniques exist and what they attempt to counter.

In real corporate environments, time is one of the most limited resources during an incident. When something goes wrong, analysts rarely have the luxury of manually browsing every directory or registry hive on every endpoint. Incidents often involve dozens, hundreds, or even thousands of systems. This is where automation becomes not just helpful, but essential. One of the most widely used tools for this purpose is KAPE.

What Is KAPE?

KAPE, short for Kroll Artifact Parser and Extractor, is a tool created by Eric Zimmerman that focuses on fast, targeted forensic collection and processing. Instead of copying an entire disk image and analyzing it blindly, KAPE allows investigators to selectively collect artifacts that matter most during triage. It then processes those artifacts using dedicated parsers and produces structured output, usually in CSV format, that is easy to review, filter, and correlate.

KAPE supports both command-line and graphical interfaces, which makes it flexible for different workflows. Analysts can run it interactively on their own systems, but it can also be prepared in advance and sent to users or IT staff during an incident. In these cases, the person running KAPE does not need to understand forensics at all. They simply launch the executable, and KAPE performs the predefined tasks automatically. This ability to standardize collections across many systems is one of KAPE’s greatest strengths.

How Does It Work?

At its core, KAPE is highly configurable and extensible. The KAPE executable itself does not contain forensic logic. Instead, it follows instructions defined in configuration files that describe what should be collected and how it should be processed.

During collection, KAPE identifies files defined by its Targets and places them into an internal queue. It copies data in two distinct passes. In the first pass, it attempts to copy files that are not locked by the operating system. These are usually straightforward. Files that cannot be accessed due to locks are placed into a secondary queue. In the second pass, KAPE uses raw disk access techniques to bypass OS-level locks and safely extract those files.

Importantly, KAPE preserves original timestamps and metadata wherever possible and recreates a directory structure that closely resembles the original system layout. This is critical for maintaining forensic integrity.

Once collection is complete, KAPE can immediately process the data using Modules. Modules run external tools or scripts against the collected artifacts. For example, KAPE may collect Windows Prefetch files as part of a Target. A Module such as PECmd can then parse those Prefetch files and output structured CSV data that clearly shows execution history.

KAPE Folder Structure

When you open the root KAPE directory, you will notice several important components.

You will see both kape.exe, which is the command-line version, and gkape.exe, which is the graphical interface. Both perform the same tasks. The difference is how you interact with them.

You will also see directories for Targets and Modules, which form the backbone of KAPE’s functionality. Let’s take a closer look at those now.

Targets

In KAPE terminology, Targets define what data should be collected. A Target specifies files, directories, or artifacts that KAPE should copy from a system into a destination folder. Targets do not analyze data, they only collect it.

For example, Windows Prefetch files are a valuable execution artifact. We can define a Target that collects only Prefetch files. Similarly, registry hives, event logs, browser artifacts, and application data can all be defined as Targets. In simple terms, Targets move relevant forensic artifacts from one place to another in a structured and reliable way.

Inside the Targets directory, you will see that they are grouped by category, such as Antivirus, Applications, Browsers, and Windows. Each category contains .tkape files, which define individual Targets.

Compound Targets

KAPE also supports Compound Targets, which combine multiple Targets into a single logical unit. This is useful during triage, where collecting artifacts one by one would be impractical.

Compound Targets such as !BasicCollection, !SANS_Triage, or KapeTriage represent curated sets of artifacts commonly needed during initial investigations. By using a Compound Target, an analyst can collect a broad and meaningful dataset with a single selection or command, saving valuable time during an incident.

These Compound Targets are located in the KAPE\Targets\Compound directory and are one of the main reasons KAPE is so effective for rapid response.

!Disabled

The !Disabled directory contains Targets that are intentionally inactive. These Targets remain part of the KAPE environment but are hidden from normal selection. This is useful when you want to preserve Targets for future use without displaying them during routine operations.

!Local

The !Local directory is used for custom Targets that should not be synchronized with the official KAPE repository. This is ideal for environment-specific artifacts or organization-specific applications. During updates, anything not recognized by the repository is automatically moved here, ensuring your custom work is not lost.

Modules

Modules in KAPE define how collected data is processed. Unlike Targets, Modules do not copy files. Instead, they execute tools against the collected artifacts and extract information from them. The output is typically stored as CSV or TXT files, making it easy to review and import into analysis tools.

Modules are organized in a similar structure to Targets and include templates, guides, and Compound Modules. Most Modules are grouped by platform or artifact type.

Bin

The bin directory contains executables required by Modules that are not normally present on Windows systems. 

This commonly includes Eric Zimmerman’s forensic tools. KAPE automatically calls these tools when needed.

KAPE GUI

Now that we understand the building blocks, let’s look at KAPE in action using the graphical interface.

When you launch gkape.exe, the interface may look overwhelming at first glance. This is normal. Once you understand the layout, it becomes very intuitive.

Target

In the Target section, you define the Target Source, which is usually a disk such as C:\, and the Target Destination, which is where collected artifacts will be stored. The Flush option clears the destination directory before collection, which must be used carefully. In most cases, it is safer to leave this unchecked.

Options like Add %d and Add %m append date and machine information to the result file names, which is useful when collecting data from multiple systems.

Below this, you select your desired Target or Compound Target from the list. The search bar helps quickly locate specific Targets.

Additional options allow you to process Volume Shadow Copies, transfer data via SFTP or S3, exclude files by hash, or package results into containers such as ZIP or VHDX files.

Module

The Module section defines how collected data will be processed.

Once everything is configured, the command line preview updates automatically, showing exactly what will be executed.

Execution

After clicking Execute, KAPE begins its work. Depending on system size and selected options, this may take some time. Progress is clearly displayed, and errors are logged if encountered.

Results

Once completed, the results are available in structured formats, usually CSV files.

For demonstration purposes, we can look at SRUMDatabase output, which provides insight into application usage, network activity, and user behavior across different accounts.

KAPE CLI

KAPE can also be run entirely from the command line. By running kape.exe in an elevated PowerShell session, you can view all available switches.

Targets require –tsource, –target, and –tdest, while Modules require –module and –mdest. Other switches are optional and allow for fine-grained control.

By building commands step by step, you can reproduce exactly what the GUI does, making KAPE ideal for scripting and automation.

Batch Mode

KAPE’s batch mode allows predefined commands to be stored in a _kape.cli file. When kape.exe runs as administrator, it automatically executes the contents of this file. This is perfect for scenarios where non-technical users need to perform forensic collection with minimal guidance.

Here is what the content of _kape.cli should look like:

--tsource C: --target KapeTriage --tdest C:\Users\Admin\Desktop\Target --mdest C:\Users\Admin\Desktop\module --module !EZParser

Updating KAPE

Keeping KAPE up to date is straightforward. Using the provided update script ensures you receive the latest Targets, Modules, and improvements.

PS > .\Get-KAPEUpdate.ps1

Summary

KAPE helps us with fast and scalable investigations. By separating collection from processing and allowing both to be automated, it allows DFIR teams to respond efficiently under pressure. As environments grow larger and incidents more complex, tools like KAPE are needed. 

In the next article, we will show you how to make KAPE output colorful and easier to navigate.

If you’re interested in digital forensics, we recommend our training for both beginners and those looking to advance their forensic skills. If you need forensic assistance, we offer professional services to help investigate and mitigate incidents.

Source: HackersArise
Source Link: https://hackers-arise.com/digital-forensics-doing-quick-analysis-with-kape/