Independent security research practice

The difficult parts of Windows security, made legible.

Advanced reverse engineering and adversarial research for security vendors and product teams facing protected code, kernel boundaries, evasive threats, and problems that ordinary testing cannot explain.

REVERSE ENGINEERINGWINDOWS INTERNALSADVERSARIAL RESEARCHLOW-LEVEL SECURITY
01 / CAPABILITIES

Research for opaque, hostile, and privileged systems.

The practice is intentionally narrow: difficult technical questions where binary understanding, Windows internals, and an attacker's perspective materially change the answer.

01

Advanced binary reverse engineering

Recover behavior from protected, obfuscated, packed, or undocumented software. Map control flow, trust boundaries, anti-analysis logic, and the mechanisms that matter.

  • Static + dynamic analysis
  • Deobfuscation strategy
  • Custom research tooling
02

Windows kernel & driver security

Assess kernel components, drivers, privileged services, and user/kernel boundaries for exploitable assumptions, unsafe interfaces, and resilience failures.

  • IOCTL attack surface
  • Kernel debugging
  • HVCI / WDAC constraints
03

Adversarial product assessment

Test what happens when a capable local adversary actively studies, tampers with, disables, or evades a security-sensitive Windows product.

  • Bypass & evasion research
  • Tamper-resistance review
  • Detection gap analysis
04

Malware & threat research

Turn unfamiliar or deliberately hostile code into defensible evidence: capability maps, persistence paths, protocols, indicators, and detection opportunities.

  • Malware reverse engineering
  • Behavior reconstruction
  • Detection guidance
05

Hypervisor & low-level systems research

Investigate boundaries below ordinary application security, including virtualization, privileged execution, memory introspection, and cross-layer behavior.

  • Hypervisor interfaces
  • Privileged boundaries
  • Low-level prototyping
06

Game security & advanced cheat research

Analyze sophisticated cheats and the evasive systems around them, then translate their methods into durable countermeasures and sharper detection strategy.

  • Complex cheat analysis
  • Anti-cheat evasion
  • Countermeasure design
02 / OPERATING PRINCIPLE

When documentation ends, the binary becomes the specification.

Binary Depth is positioned between a security research lab and a specialist engineering partner. The objective is not a long list of generic findings. It is a defensible explanation of the mechanism, its impact, and what to do next.

Evidence over claims

Reproducible traces, code paths, artifacts, and proof—not security theatre.

Mechanism over symptoms

Understand why the control failed so the same class of failure can be retired.

Discretion by design

Authorized work, tightly scoped handling, and NDA-compatible delivery.

03 / ENGAGEMENT MODEL

A small, senior research loop.

Start with the decision the client must make. Time-box the unknowns. Hand back the evidence and the advantage.

01

Frame the decision

Define the target, attacker model, constraints, and the exact question the research must answer.

02

Prove the mechanism

Trace the relevant execution paths and build reproducible evidence rather than relying on scanner output or assumptions.

03

Transfer the advantage

Deliver findings, tooling, and countermeasures in a form the client team can verify, implement, and maintain.

04 / CONTACTAUTHORIZED RESEARCH ONLY

Bring the problem that needs a researcher, not a checklist.

A useful first message describes the target, the question that must be answered, available artifacts, authorization, and the decision deadline. Sensitive details can follow under NDA.

Secure contact channel will be connected before launch.