#KEYMASTER: Understanding Cryptographic Posture Management and Asset Visibility
2026-03-25
Cryptography is the backbone of modern digital security, protecting sensitive data, communications, and systems. However, many organizations still treat cryptography as a “set it and forget it” technology. In reality, managing cryptographic assets requires continuous visibility and evaluation.
In this #KEYMASTER episode, Dr. Vladimir Soukharev, VP of Cryptography at InfoSec Global (part of Keyfactor), discusses with Sven Rajala why organizations need to move beyond traditional certificate management and toward comprehensive cryptographic posture management.
Beyond Certificates: The Broader Cryptography Landscape
Many security teams are familiar with Certificate Lifecycle Management (CLM), which focuses on managing digital certificates. While CLM is important, it only addresses a small portion of the overall cryptographic environment.
Cryptography includes far more than certificates. Organizations must also account for:
- Cryptographic keys
- Cryptographic algorithms
- Cryptographic libraries
- Cryptographic protocols
- Key stores and security modules
- Embedded cryptographic components inside software and systems
CLM might cover roughly 20% of the total cryptographic ecosystem, leaving a significant portion unmanaged if teams stop there. To truly understand the risk, organizations need visibility into all cryptographic assets, not just certificates.
Measuring Cryptographic Exposure
To manage cryptographic assets effectively, organizations need a clear inventory and evaluation framework. Several dimensions should be considered when assessing cryptographic exposure.
1. Security Strength
Teams should evaluate how secure each cryptographic component is. This includes checking whether algorithms are modern, supported, compliant, and considered safe.
For example, deprecated algorithms, such as SHA-1, still appear in many environments despite being considered insecure for years.
2. Business Criticality
Not all vulnerabilities carry the same risk. The impact depends heavily on where the cryptography is used.
An outdated algorithm might be less concerning if it’s rarely used or exists in a low-risk system. However, the same weakness becomes critical if it protects high-value assets or “crown jewel” systems.
3. Future Readiness
Organizations must also consider future cryptographic threats, particularly the transition to post-quantum cryptography.
Unlike previous cryptographic transitions—such as moving from RSA to elliptic-curve cryptography—quantum risks are more severe. If organizations fail to migrate in time, classical cryptography could become completely vulnerable rather than just slightly weaker.
The Hidden Complexity of Cryptographic Discovery
One of the biggest challenges in cryptographic posture management is simply discovering all cryptographic assets.
Cryptography exists everywhere in modern systems, often in places organizations don’t expect.
In one example discussed in the conversation, scanning a brand-new laptop with a default Windows installation revealed hundreds of cryptographic artifacts already present, even before installing additional software.
This illustrates how widespread cryptography is across operating systems, applications, and libraries.
Another challenge arises when older cryptographic implementations remain in systems even after newer ones are introduced. Teams may upgrade to stronger algorithms but fail to remove legacy versions, leaving unnecessary vulnerabilities behind.
Dealing with Third-Party Cryptography
Many organizations rely heavily on third-party applications and libraries. In these cases, teams often lack access to the source code.
To maintain visibility, organizations must be able to:
- Scan compiled binaries
- Analyze embedded cryptographic components
- Identify outdated libraries or algorithms
Even without source code access, binary scanning can reveal what cryptography is present in third-party software and help detect weak or outdated implementations.
Since security is only as strong as the weakest link, identifying these hidden risks is essential.
Enabling Policy Enforcement and Compliance
Cryptographic posture management is not just about identifying vulnerabilities—it also provides a structured way to enforce internal policies and meet external compliance requirements.
At its core, it allows organizations to define custom cryptographic policies that specify what is acceptable within their environment. These policies can include rules around:
- Approved or disallowed algorithms
- Minimum key lengths
- Accepted certificate configurations
- Allowed cryptographic libraries and versions
Once these policies are established, organizations can continuously scan their systems and automatically flag any violations. For example, even a strong algorithm like AES could be flagged if it doesn’t align with a specific internal policy or regulatory requirement. Or an unexpected foreign cryptographic algorithm that might be cryptographically secure, yet not compliant. This could also raise questions about why it is there in the first place.
This approach shifts compliance from a manual, audit-driven process to an automated and continuous practice, giving teams real-time visibility into their security posture.
Rethinking Cryptographic Security
One important reality in cryptography is that nothing is truly unbreakable.
Instead, cryptographic security is based on the practical difficulty of breaking an algorithm. If cracking it would take tens of thousands of years with current computing power, it is considered secure for practical purposes. But if the same process might take only months or years, it becomes a serious risk.
Understanding this balance—and continuously monitoring cryptographic strength—is the core purpose of cryptographic posture management.
Key Takeaways
- CLM is only part of the picture: Certificate lifecycle management covers a small portion of the broader cryptographic ecosystem.
- Full visibility is critical: Organizations must track algorithms, keys, libraries, protocols, and other cryptographic components across their environments.
- Risk depends on context: Weak cryptography in critical systems poses far greater risk than the same weakness in low-impact areas.
- Cryptography is everywhere: Even a default operating system installation can contain hundreds of cryptographic artifacts.
- Third-party software introduces hidden risks: Binary scanning helps uncover embedded cryptography when source code isn’t available.
- Post-quantum readiness matters: Unlike earlier migrations, failing to transition to post-quantum cryptography could render systems completely insecure.
- Compliance benefits from visibility: Cryptographic posture management helps organizations enforce standards and detect violations automatically.
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