In digital forensics, there’s a moment when all the noise of an investigation starts to settle, and you begin to see the faint outline of a story. A system that once looked like a chaotic pile of logs suddenly feels like a living timeline—actions unfolding in sequence, small events leading to bigger ones, traces left behind that don’t lie, even when everything else does. That moment of clarity is what timeline analysis gives you. And few tools have transformed that art as profoundly as Plaso, or Log2Timeline as many still call it.
Forensic work is a strange combination of careful patience and relentless curiosity. Analysts spend hours parsing artifacts, correlating timestamps, and trying to understand what a system was doing long before anyone realized something had gone wrong. Logs, registry entries, browser histories, file metadata, jump lists, event records, caches—all these tiny fragments hold parts of the truth. The challenge is not collecting them; the challenge is unifying them. Before Plaso existed, building a comprehensive timeline felt like assembling a puzzle where the pieces came from different boxes, different shapes, and sometimes different worlds entirely.
Plaso changed that. It automated timeline creation in a way that felt almost revolutionary. It didn’t just gather artifacts—it parsed them, normalized them, and stitched them into a single chronological narrative. Using Plaso feels like stepping into a quiet room where everything finally makes sense. You run it, and suddenly you have a timeline that spans millions of events across dozens of data sources, all aligned by time, all speaking the same language, all ready for analysis.
This course is a journey through that world: how Plaso works, why it matters so much in forensics, and how the process of timeline analysis becomes one of the most powerful investigative techniques you can learn.
Digital systems are full of timestamps—more than most people realize. Every click, every opened file, every network request, every browser page, every login, every installation, every deletion—so many actions leave behind subtle marks. Even when attackers try to hide, even when they disable logging, wipe artifacts, or overwrite traces, remnants persist. A timestamp in one place may contradict a manipulated timestamp elsewhere. A leftover entry in a SQLite database may reveal what was really happening. A fragmented log file might expose a crucial minute that ties the entire investigation together.
The beauty of timeline analysis is that it doesn’t depend on any single artifact. It works by correlation. If five unrelated subsystems indicate activity around a certain time, and an attacker manipulated one of them, the other four still speak the truth. Plaso leverages this principle better than almost any tool today.
One of the reasons Plaso is so respected in the forensic community is that it doesn’t assume anything. It parses artifacts through hundreds of plugins—each crafted by investigators who understand the format’s quirks, anomalies, and hidden fields. It looks into deep corners: Shadow Copies, browser cookies, system journals, quarantine folders, wireless profiles, Prefetch files, LNK files, Recycle Bin entries, cloud sync logs, messaging databases, and so much more. When you first see how many artifacts Plaso can extract, you realize how much information modern systems actually hold.
The power of timeline analysis comes from the fact that time is one of the few things attackers cannot fully control. They can change timestamps on files, but they cannot modify every log in every subsystem perfectly. They cannot influence how third-party applications store metadata. They cannot erase the inherent sequencing of actions. Time creates structure. And Plaso helps you read that structure.
As you progress through this course, you’ll start experiencing the shift from artifact-focused thinking to timeline-focused thinking. Instead of asking questions like “What logs exist?” or “What files were modified?”, you begin asking “What was happening on this system at 10:42 AM?” or “What chain of events led to this process spawning?” That shift is fundamental. It transforms forensic analysis from a fragmented search into something more like narrative reconstruction.
And narratives matter. In an investigation, you’re not just collecting evidence—you’re rebuilding the story of what occurred. Attackers often rely on chaos, hoping their movements will blend into normal activity. But a proper timeline exposes patterns that chaos cannot hide: a login at an unusual time, a new executable launch minutes later, lateral movement followed by privilege escalation, or a cluster of suspicious events around a single directory. Plaso lets you spot these patterns quickly.
The strength of Plaso lies not only in how it collects data, but how it normalizes and exports it. Its output, usually in the form of a super-timeline, is structured in a consistent format. No matter how varied the data sources are, the resulting timeline feels unified. That consistency is what enables deeper filtering, correlation, and pivoting. Tools like psort and Timesketch become natural companions, helping analysts break down the timeline into manageable views, focus on specific periods, highlight anomalies, and visualize activity.
In this course, you’ll learn not just how Plaso functions, but how to think like a timeline analyst. That means understanding the nature of timestamps—MAC times, event times, system times, embedded metadata times—and recognizing how they differ. It means learning how time zones complicate everything and how systems store time differently. It means identifying when timestamps were modified intentionally, when clocks drifted, or when different artifacts conflict. It means recognizing the value of seconds when reconstructing an attack chain.
You’ll also understand the practical side of using Plaso in real investigations—handling large disk images, avoiding unnecessary parsing to save time, writing custom filters, evaluating plugin results, reviewing extraction anomalies, and understanding performance considerations that matter in enterprise-level investigations.
Another layer to this field is the diversity of environments that investigators face today. Windows, macOS, Linux, mobile platforms, cloud logs, containers—each has its own timekeeping quirks and artifact formats. Plaso supports many of them, and where it lacks native support, investigators can extend it. This flexibility makes timeline analysis scalable across different types of cases, from corporate intrusions to insider threats, from malware infections to complex multi-stage operations.
What makes timeline analysis uniquely satisfying is how it brings clarity to situations that initially seem overwhelming. Disk images with terabytes of data don’t intimidate you as much when you can convert activity into a chronological sequence. Endless folders of log files stop feeling messy when you realize they all speak the same language of minutes and seconds. Complex incidents begin to unravel the moment you identify inconsistencies in time.
Timeline analysis also trains you to ask better investigative questions. Instead of focusing solely on what artifacts exist, you learn to focus on why they exist, how they relate, and what they imply about user or attacker actions. A single prefetch entry might mean little by itself. But paired with a browser download timestamp, a Windows event log entry, and a jump list record, it becomes part of a cohesive timeline of execution. Plaso automates the grunt work of collecting these artifacts so you can dedicate your mental energy to interpretation.
Another theme that will emerge across this course is how timeline analysis bridges the gap between technical forensics and the human element of investigations. Every sequence of events ultimately reflects human decisions—good ones or malicious ones. Timelines reveal when someone was active on a system, when they switched tasks, when they tried to cover their tracks, when they made mistakes. Plaso helps illuminate that behavior in a structured, data-driven way.
The true beauty of Plaso is that it doesn’t try to guess the story—it simply lays out the evidence in the clearest possible order. The interpretation is up to you. And that’s where the art of forensics comes in.
As we move deeper into the course, you’ll also explore how timeline analysis plays a role in broader investigative workflows. Incident response teams rely on timelines to scope breaches. Legal teams use them to establish sequences. Threat hunters rely on them to detect subtle anomalies. Security engineers use them to understand misconfigurations. Digital forensics examiners use them to uncover truth in criminal cases. Timelines aren’t just technical—they’re vital to decision-making.
By the time you finish all 100 articles, Plaso won’t feel like a complex command-line tool anymore. It will feel like a foundational instrument in your investigative toolkit—something you reach for naturally when faced with uncertainty. You’ll understand how to gather data efficiently, how to interpret subtle timing clues, how to pivot through large datasets, how to detect anomalies that hide between milliseconds, and how to convert messy logs into coherent stories.
You’ll gain a sense of confidence in navigating digital events, whether they span minutes or months. And most importantly, you’ll appreciate timeline analysis not just as a technique, but as a powerful form of truth-finding in a field where truth often hides beneath layers of complexity and misdirection.
This course invites you into that world—one timestamp, one artifact, one timeline at a time. Let’s begin.
1. Introduction to Digital Forensics and Timeline Analysis
2. What is Plaso (Log2Timeline)? A Comprehensive Overview
3. Setting Up and Installing Plaso for Timeline Analysis
4. Understanding the Role of Plaso in Cybersecurity Forensics
5. Basic Concepts of Timeline Analysis in Digital Forensics
6. Exploring the Plaso User Interface and Command-Line Interface (CLI)
7. Overview of Supported Data Formats in Plaso
8. Introduction to Time-Based Evidence in Cybercrime Investigations
9. How Plaso Works: Creating and Parsing Timeline Data
10. Running Your First Timeline Analysis with Plaso
11. Understanding Log2Timeline and Its Key Features
12. Collecting and Preparing Log Data for Plaso Analysis
13. Basic Commands in Plaso: Starting with Log2Timeline
14. What is a Timeline? Understanding the Importance in Digital Forensics
15. Exploring Common File Formats for Timeline Analysis: Windows Event Logs, Sysmon, and More
16. Filtering and Searching Timeline Data with Plaso
17. How to Parse Various Data Sources with Plaso
18. Introduction to Timestamp Analysis and Timezone Normalization
19. Understanding Log Sources: File System, Event Logs, and Network Logs
20. Identifying Key Events in Timeline Data Using Plaso
21. Understanding and Managing Plaso Output Files: CSV, SQLite, and JSON
22. Creating and Customizing Timeline Reports in Plaso
23. Exploring Plaso's Default Plugins for Common Log Formats
24. Analyzing System Logs: Application, Security, and Setup Logs in Plaso
25. How to Work with Event Log Files: Windows, Linux, and Mac OS X
26. Advanced Filtering and Parsing Options in Plaso
27. Using Plaso to Detect Malicious Activity: File Modifications, Executions, and Network Events
28. Conducting Time-Based Forensic Analysis with Plaso for Windows Systems
29. Creating a Custom Timeline from Raw Log Data Using Plaso
30. Advanced Timezone Handling in Plaso: Working with UTC and Local Time Zones
31. Using Plaso for Incident Response and Early Detection of Cyber Attacks
32. How to Analyze Web Activity with Plaso Timelines
33. Parsing Email and Web Browser Data with Plaso
34. Using Plaso to Investigate File System Events: File Access, Deletion, and Modifications
35. Extracting and Analyzing Windows Event Logs with Plaso
36. Working with Linux and Mac OS X Logs in Plaso
37. Advanced Event Correlation Using Plaso Timelines
38. Investigating System Boot Times and Shutdown Events with Plaso
39. How to Use Plaso for Malware and APT Investigations
40. Integrating Plaso with Other Digital Forensics Tools for Comprehensive Analysis
41. Using Plaso for USB Device and External Media Forensics
42. How Plaso Handles File Metadata: Detecting Hidden Evidence
43. Analyzing Windows Registry Data with Plaso Timelines
44. Detecting Unauthorized Access Using Plaso’s Timeline Analysis
45. Managing Large-Scale Data Analysis with Plaso
46. Automating Plaso Timeline Analysis with Scripts and Batch Processing
47. Using Plaso to Track User Activity and Behavior on Systems
48. Performing Log Correlation to Identify Attack Pathways
49. Plaso’s Role in Investigating Insider Threats and Unauthorized Access
50. Generating Custom Reports Based on Specific Timeline Data
51. How to Identify Suspicious Activity Using Log Correlation in Plaso
52. Analyzing File System Metadata (MFT, FAT, and NTFS) with Plaso
53. Understanding Plaso’s Timeline Visualization Capabilities
54. Working with Specific Data Sources: Sysmon, FTK Imager, and X-Times
55. Practical Guide to Handling Corrupt or Missing Logs in Plaso
56. Using Plaso for Cloud and Virtual Machine Forensics
57. How to Investigate Application Logs in Plaso for Insider Threat Detection
58. Managing and Organizing Data During Large-Scale Timeline Investigations
59. Plaso and Forensic Imaging: Extracting Logs from Disk Images
60. How to Use Plaso to Perform Forensic Analysis on Network Logs
61. Advanced Timeline Analysis Techniques with Plaso
62. Understanding the Power of Plaso’s Custom Plugins for Tailored Forensic Analysis
63. Building Custom Data Parsers for Non-Standard Log Formats in Plaso
64. Analyzing Windows Event Logs in Detail with Plaso’s Advanced Features
65. Performing Comprehensive Timeline Analysis Across Multiple Data Sources
66. Advanced Scripting Techniques for Automating Plaso Analysis Tasks
67. Integrating Plaso with SIEM Tools for Real-Time Event Correlation
68. Using Plaso in Incident Response: Detecting and Investigating Sophisticated Attacks
69. Correlating Data from Different Operating Systems in a Unified Plaso Timeline
70. Advanced Evidence Correlation: Connecting the Dots in Digital Forensics
71. Using Plaso’s SQLite and CSV Output for Data-Driven Forensic Investigations
72. Investigating Cyber Attacks and Attack Vectors with Plaso Timeline Data
73. Analyzing Cross-Platform Timelines: Windows, Linux, and Mac OS X in Plaso
74. Plaso for Analyzing Cloud Service Logs (AWS, Azure, GCP)
75. How to Use Plaso in Ransomware Investigations: Detecting File Modifications and Encryption Events
76. Deep Dive into the Technical Aspects of Plaso’s Timezone Normalization
77. Using Plaso to Analyze Network Logs for Cyber Threat Detection
78. Handling Encrypted and Password-Protected Log Data in Plaso
79. Plaso’s Role in Investigating and Documenting Insider Threats
80. Using Plaso for Advanced Malware Analysis: Tracing Artifacts Left by Threat Actors
81. Advanced Time Correlation Techniques in Plaso for Incident Investigation
82. Investigating IoT Device Logs with Plaso Timeline Analysis
83. How to Build a Full Timeline Report for Cybercrime Investigations Using Plaso
84. Detecting Advanced Persistent Threats (APTs) Using Plaso’s Timeline Features
85. Analyzing File Integrity Changes with Plaso Timeline Analysis
86. Using Plaso’s Timeline for Incident Reconstruction in Cybersecurity Cases
87. Advanced Data Sourcing: How to Handle Raw Data from Multiple Forensic Tools
88. Plaso in Large-Scale Digital Forensics: Handling Gigabytes of Log Data
89. Time-Based Data Analysis: Investigating Attack Patterns and Criminal Behavior
90. Automating Timeline Analysis Workflow with Plaso and Forensic Tools
91. Cross-Referencing and Correlating Plaso Timelines with Network Traffic Analysis
92. How to Perform Correlation Between Endpoint Logs and Network Logs Using Plaso
93. Scaling Plaso for Enterprise Forensic Investigations
94. Plaso for Mobile Device Forensics: Parsing SMS, Calls, and App Data
95. Analyzing Digital Evidence from Virtual Environments with Plaso
96. Best Practices for Handling and Storing Digital Evidence with Plaso
97. Plaso for Incident Response: Creating and Maintaining a Digital Evidence Timeline
98. How to Integrate Plaso with Other Open-Source Forensic Tools (Sleuth Kit, Volatility)
99. Using Plaso in Law Enforcement Investigations: Legal Considerations and Best Practices
100. Future of Digital Forensics: Enhancing Plaso with Artificial Intelligence and Machine Learning