How to detect hooks in a process using Process Memory Map?

Press F8 to run the hook detection module, which scans import/export tables, delay imports, entry points, and TLS callbacks, displaying warnings and addresses for potential hooks in a detailed output window, as shown in the hook scanner screenshot.

Process Memory Map vs Process Explorer: which is better for memory analysis?

Process Memory Map excels in deep structural analysis, hook detection, and disassembly for reverse engineering, while Process Explorer is better for high-level system monitoring and resource usage. Choose based on your need for low-level details versus general process management.

Can Process Memory Map disassemble 64-bit code?

Yes, it has a built-in x64 disassembler based on DiStorm that handles both 32-bit and 64-bit code, with formatted output, call hints, and integration of export lists for better readability, as demonstrated in the disassembly screenshots.

How to integrate debug MAP files with Process Memory Map?

MAP file support is integrated; when present, it improves function recognition in disassembly output and export lists, though full PDB support is planned for future versions. Use Ctrl+E to view export lists enhanced with MAP data.

What are the keyboard shortcuts in Process Memory Map?

Key shortcuts include F2 for known data, F4 for call stacks, F5 for memory comparison, F8 for hook scanning, Ctrl+D for disassembly view, and Ctrl+E for export lists, streamlining navigation and analysis as noted in the README.

Is Process Memory Map suitable for malware analysis?

Yes, its hook detection, memory comparison, and disassembly features are valuable for analyzing malicious code, but it lacks behavioral analysis or sandboxing tools found in dedicated malware analysis platforms like Cuckoo Sandbox.

MemoryMap — Windows Process Memory Visualizer

What is MemoryMap?

Process Memory Map is a Windows utility that displays detailed memory maps of running processes. It provides deep insights into process internals including heaps, threads, loaded modules, and system structures like PEB and KUSER_SHARED_DATA, making it invaluable for reverse engineering, debugging, and security analysis.

Target Audience

Windows reverse engineers, security researchers, and low-level developers who need to analyze process memory structures, detect hooks, or debug complex software issues at the memory level.

Value Proposition

Developers choose Process Memory Map for its detailed, human-readable visualization of low-level process data, integrated x86/x64 disassembler with call hints, and specialized features like hook detection and memory comparison that simplify complex memory analysis tasks.

Overview

Process Memory Map

Use Cases

Best For

Analyzing process memory layouts to understand heaps, thread stacks, TEB, and SEH frames during debugging sessions.
Reverse engineering Windows executables by examining loaded PE files with section breakdowns, entry points, and structural data.
Detecting hooks in import/export tables, delay import tables, exported functions, entry points, and TLS callbacks for security analysis.
Comparing memory blocks for changes (e.g., in cracked software) using checksum analysis and difference highlighting.
Disassembling x86/x64 code within process memory with formatted output, call hints, and integration of debug MAP files for better function recognition.
Examining system structures like PEB and KUSER_SHARED_DATA with mapped, human-readable representations instead of raw data.

Not Ideal For

Cross-platform analysis or development on Linux or macOS
Interactive debugging with breakpoints and step-through execution like in Visual Studio
Real-time memory manipulation or game hacking tasks better suited for tools like Cheat Engine
Automation or scripting via command-line interfaces for batch processing of memory dumps

Pros & Cons

Pros

Detailed Memory Visualization

Displays process heaps, threads, TEB, SEH frames, and system structures like PEB and KUSER_SHARED_DATA with human-readable formatting, as shown in screenshots of IMAGE_DOS_HEADER and environment blocks.

Integrated Disassembler with Hints

Includes an x86/x64 disassembler based on DiStorm that formats output, adds call hints for known functions, and integrates export lists and MAP files for enhanced code analysis, as demonstrated in the entry point disassembly screenshots.

Comprehensive Hook Detection

Analyzes hooks in import/export tables, delay imports, entry points, and TLS callbacks, providing detailed warnings and addresses, which is invaluable for security researchers and reverse engineers.

Memory Comparison Tools

Allows comparing memory blocks using checksums to highlight changes (e.g., in cracked software), with results displayed in a dedicated dialog accessed via F5, as shown in the compare result screenshot.

Cons

Windows and Delphi Dependency

Only works on Windows and requires Delphi 10.4.2 Sydney for building, with no guaranteed compatibility for older versions, limiting accessibility and posing a barrier for developers not using this specific toolchain.

Incomplete Debug Symbol Support

Full support for PDB files and advanced DWARF versions is listed in the RoadMap (e.g., versions 1.8 and 1.9), meaning current capabilities are limited compared to tools with native, out-of-the-box PDB integration.

Complex Setup for Custom Builds

Building from source requires specific components like Virtual TreeView 8.0+ and FWZip 1.0.9+, along with Delphi 10.4.2, making it cumbersome for developers not already embedded in that ecosystem.

MemoryMap

What is MemoryMap?

Overview

Use Cases

Best For

Not Ideal For

Pros & Cons

Pros

Cons

Frequently Asked Questions

Related Projects

Found a gem we're missing?

MemoryMap

What is MemoryMap?

Overview

Use Cases

Best For

Not Ideal For

Pros & Cons

Pros

Cons

Frequently Asked Questions

Related Projects

Found a gem we're missing?