Friday, November 30, 2018

Malware and Memory Forensics Training in 2019!

We are excited to announce that in 2019 we will have 3 public offerings of our highly popular and newly updated Malware and Memory Forensics training course. If you would like to join us, our international course will be in London in September, and our US course will be back in Reston/Herndon, VA, during the week of April 8-12, and also in October. We will announce the specific weeks of the Fall courses soon.

Our cutting-edge materials are one of the main reasons students value our course. We don't teach the same concepts year after year. Instead, we update our class regularly to stay in sync with (and in some cases, ahead of) the rapidly changing attack surfaces, advances in defense technologies, malware hiding tricks, and operating system forensics artifacts. A few recent additions include:
  • Updated memory analysis techniques for Windows 10 changes
  • Challenges of recent hibernation file analysis
  • Incorporating decompression of memory pages and paging files into analysis
  • Expanded coverage of memory-only Powershell and .NET based attacks
  • Scalable and automated memory acquisition of Linux systems
  • Memory acquisition challenges from OS X Mojave systems
Not only only will you be learning these memory forensics topics directly from the authors of the Volatility Framework and the Art of Memory Forensics, but you will also receive Volatility stickers, a branded USB drive, a copy of the Art of Memory Forensics (digital or print), and various opportunities to win SyncStops - all nicely documented by a recent student:

We also recently started providing students with a foldable copy of our popular cheat sheet:

 One of the most popular class contests is our CTF that pits individuals (or teams of two) against the rest of the class, in a challenge that involves analyzing Windows and Linux memory samples in a scenario resembling events that unfolded during the 2016 U.S. Presidential Election.

To continue providing the most up-to-date memory forensics training available anywhere in the world, our instructors constantly perform high impact, real-world DFIR  (12345, 6, 7). The knowledge gained during these investigation is immediately transitioned into content and labs for our training courses.

Besides the core knowledge needed to perform effective memory forensics, we also teach the latest tools and techniques for reliable memory acquisition. Students will gain experience using Volexity Surge Collect Pro for robust, fast, and secure collection of Windows, Linux, and OS X memory to local and remote/network-based destinations. Students can purchase Surge licenses at a discounted price during course registration (see Memory Forensics Training FAQ) or separately after the class.

In closing this update, we would again like to thank the DFIR community for its continued support of the Volatility project and our associated training course. It was great seeing and meeting so many users around the world this year, particularly at OSDFCon, Black Hat, DFRWS, BSidesNOLA, and in Amsterdam and Herndon.

-- The Volatility Team

Friday, November 16, 2018

Results from the 2018 Volatility Contests are in!

Let’s begin by thanking all of the participants in this year’s contests! This year we hosted the 6th Annual Volatility Plugin Contest, and we introduced the Inaugural Analysis Contest. We were encouraged to see submissions from our community members around the globe. As in previous years of the Plugin Contest, there were a lot of exciting submissions spanning tools created by practitioners in the field to published academic research. Participation in these contests demonstrates the importance of memory analysis and provides a platform for the innovative research being done in the field.

Volatility continues to thrive because of its active community of contributors. These contributors sacrifice their time and resources to make the world’s most advanced memory forensics platform free and open source. You can show your appreciation for the participants hard work and contributions to the community by following them on Twitter/GitHub/LinkedIn, providing feedback on their ideas, and helping to improve their code with testing, documentation, or contributing patches.

We would also like to thank our sponsors: Magnet Forensics and Volexity. When looking for a new job or searching for forensics tool vendors, we definitely recommend considering companies that demonstrate continued support for open source forensics!

Placements and Prizes for the 2018 Volatility Plugin Contest:

1st place and $1500 USD cash or One Free Seat at Malware and Memory Forensics Training by the Volatility Team goes to:

Aliz Hammond for Gargoyle

2nd place and $750 USD cash goes to:

Aleksander Østerud for MemoryDecompression

3rd place and $250 USD cash goes to:

Lorenz Liebler et al. for the Volatility Plugin for Approxis

4th place and Volatility swag goes to:

David Quesada for CSV and Splunk Dashboard

5th place and Volatility swag goes to:

Peter Casey for Vivedump

Placements and Prizes for the 2018 Volatility Analysis Contest:
1st place and $1500 USD cash or One Free Seat at Malware and Memory Forensics Training by the Volatility Team goes to:

Team Decepticon (South Korea) for 2018 VAC Report

2nd place and $750 USD cash goes to:

Team MalGround (South Korea) for 2018 PyeongChang Olympic Destroyer 

Here is a detailed summary of the submissions. If you have feedback for the participants, we're sure they'd love to hear your thoughts!

Plugin Contest

1st: Gargoyle by Aliz Hammond

In the author's words, "Gargoyle works by placing malicious code inside a non-executable area of memory. It then creates a system timer, configuring it to execute a ROP chain on expiry. The ROP chain calls VirtualProtectEx, marking the malicious code as executable, calls the malicious code, and then calls VirtualProtectEx a second time – this time, marking the malicious code as non-executable. The timer is then reinitialised and the cycle starts anew." Gargoyle has the potential to evade live memory scanners (such as AVs, EDRs, etc.) if the security tools only look for payloads in executable memory.

This Volatility plugin builds on the existing timers plugin (to which the author also submitted a patch) and inspects timer APCs (instead of just the DPCs). The plugin uses Unicorn to emulate the APC's instructions and detect (and then follow) the ROP chain to the VirtualProtectEx call. The plugin inspects parameters passed to VirtualProtectEx on the stack and can then pivot to the newly executable payload.

Related References:

2nd: MemoryDecompression by Aleksander Østerud

The MemoryDecompression tool submission provides a mechanism for decompressing memory regions that were compressed during memory management. Instead of paging memory directly to disk, the Windows 10 memory manager provides a mechanism to compress private and pagefile backed pages to reduce memory pressure. This improves performance, since writing to disk is more expensive, and reduces the number of disk operations which improves their longevity. The tool leverages a brute-force approach to decompress memory pages and can be used on both memory samples and page files. By preprocessing the data with Volatility's vaddump and memdump, it is also possible to extract the compressed memory and reduce the processing time. The MemoryDecompression tool requires a system running either Windows 8 or Windows 10.

Related References:

3rd: Volatility Plugin for Approxis by Lorenz Liebler et al.

Lorenz Liebler, Patrick Schmitt, and Harald Baier implemented Approxis, a tool for quickly processing a large number of on-disk binaries and subsequently matching/identifying parts of those binaries, or related code, in physical memory images. The technique combines approximate matching (a.k.a. fuzzy hashing or similarity hashing) with an additional layer of approximate disassembling. The tool is able to distinguish code from data even in light of significant variation between the original binary and the target memory image. Approxis has two components: (1) a C/C++ tool for creating and querying a binary database, and (2) a Volatility plugin for presenting context-specific information about matches.

Related References:

4th: CSV and Splunk Dashboard by David Quesada

The Splunk dashboard presents over 30 prepared searches across the output of various Volatility plugins. After running the desired plugins and ingesting the CSV output into Splunk, a Volatility user can load this dashboard and start looking for anomalous activity within the memory sample. Over time, a dashboard like this could be built up with more queries for finding and alerting on malicious activity in memory samples. David was inspired to create this tool after attending Malware and Memory Forensics Training taught by Andrew Case.

Related References:

5th: Vivedump by Peter Casey

Vivedump is a plugin to extract and recreate visual scene information from virtual reality (VR) device memory captures. The plugin's ability to create 3D still images of VR scenes gives the investigator a precise look at a user's actions inside of the virtual world. This novel research opens many possibilities into the under-explored topic of VR memory forensics. The tool is only a small piece of larger scale research that analysts at University of New Haven have been doing to help users better understand the risks of using VR, and to help investigators learn the associated artifacts.

Related References:

Analysis Contest

1st: 2018 VAC Report by Team Decepticon (South Korea)

The authors of this report put together a realistic lab scenario modeled after Korean APT investigations they have performed. We were not only impressed by the number of Volatility plugins represented in the analysis efforts, but also that the infected systems spanned multiple operating systems (Windows and Linux). Memory analysis was leveraged to shed light on the toolkits and methodologies used by the attackers, including Eternal Blue, Dark Comet, Spear Phishing, HWP exploits, DLL injections, MongoDB vulnerabilities, and more. Evidence from Outlook PSTs were reconstructed from RAM and shellcode was explored and identified in memory using Yarascan, Volshell, and various other capabilities provided by Volatility.

2nd: 2018 PyeongChang Olympic Destroyer by Team MalGround (South Korea)

This analysis report, written by the MalGround team from South Korea, describes a scenario based on the Olympic Destroyer events surrounding the 2018 PyeongChang Winter Olympic Games. Before the Olympics officially began, the attackers attempted to disrupt the opening ceremonies by intercepting the event's critical computer systems and infrastructure offline. The cyber attack was initiated with a targeted spear phish and then leveraged a "network worm" to propagate using network shares and stolen passwords. The simulated scenario involved three systems: an Active Directory server running Windows Server 2008 R2 Standard 64-bit, a victim PC running Windows 7 Ultimate K x86, and an attacker PC running Kali Linux 64-bit. In the simulated scenario, a file-less malware attack, leveraging Empire (Mimikatz, BypassUAC), is combined with the actual Olympic Destroyer malware. The authors leveraged memory analysis to find supporting temporal artifacts, identify suspicious characteristics of processes, and extract memory resident strings and executables. This submission includes the analysts’ report and a memory sample from the Windows 7 machine where the Olympic Destroyer malware was executed.

Related References:

Here are a few additional resources regarding previous contests and community-driven plugins:

Volatility Foundation Contest Home Page:

Volatility 2017 Plugin Contest Results:
Volatility 2016 Plugin Contest Results:
Volatility 2015 Plugin Contest Results:
Volatility 2014 Plugin Contest Results:
Volatility 2013 Plugin Contest Results:

Volatility Community GitHub Repository: