Presented by SmartCrypto
Cybersecurity teams spend millions trying to keep attackers out. Modern security strategy assumes they’ll get in anyway.
Whether through a software vulnerability, a phishing campaign, a compromised third party, or a stolen credential, the question is no longer whether attackers can reach your systems. It’s what they find when they do.
The 2026 Thales Data Threat Report found that 67% of security teams are already seeing credential theft and misappropriated secrets on the rise.
If your cryptography is working correctly, the answer is nothing useful.
Stolen data is unreadable. Transactions can’t be forged. Identities can’t be impersonated.
That’s not a theoretical argument. It’s the only reliable safety net when perimeter controls fail.
The problem is that implementing and operating cryptography at enterprise scale is genuinely hard. Most businesses don’t have the people to do it properly.
The sprawl you probably haven’t mapped
Think about where encryption lives in your environment right now.
- Your databases encrypt sensitive records.
- Your APIs exchange signed tokens.
- Your payment systems run through hardware security modules.
- Your cloud platforms have their own key management services.
- Your certificates secure communication across applications and identities.
Now ask: who owns all of that? Who tracks it? Who knows when a certificate is about to expire?
For most enterprises, the honest answer is: nobody does. Not fully.
Encryption underpins everything from payment systems and cloud workloads to digital identities and API security.
According to the 2026 Thales Data Threat Report, only 34% of security teams know where all their data is stored, and 46% are managing five or more separate key management systems.
The keys, certificates and trust infrastructure behind your encryption are almost certainly fragmented across your environment.
The term the industry has settled on for this is cryptographic sprawl.
It’s not dramatic. It’s what happens when encryption is treated as a feature of individual systems rather than a discipline in its own right.
The consequences are quiet but costly: certificates expire unexpectedly and take down critical services.
Keys aren’t rotated because nobody knows what depends on them. Compliance audits expose gaps that nobody knew existed.
Hardware security modules are the physical devices that generate and store the root cryptographic keys protecting your most sensitive systems, and they’re among the hardest components to move or modernise.
Banks know this better than most.
While application workloads shift to the cloud, HSM infrastructure tends to sit exactly where it was installed, often without the operational expertise that the original implementation team brought with them.
A different model
SmartCrypto has introduced Managed Cryptographic Services (MCS) in South Africa.
The idea is simple: cryptographic infrastructure shouldn’t be something your team also has to run.
MCS delivers three core capabilities as managed services:
- HSM as a Service – enterprise-grade hardware security modules hosted at Teraco, delivered with full key management and operational support
- PKI as a Service – managed public key infrastructure for certificate issuance, lifecycle management and trust hierarchy
- Key Management as a Service – centralised key management covering cloud and on-premise environments
Your team gets the capability. SmartCrypto manages the complexity.
As a Thales Platinum Partner and one of a small number of Thales Level 1 Support Partners globally, SmartCrypto builds its services on the same cryptographic stack used by the world’s largest banks and payment networks: the Luna Network HSM, the payShield payment HSM, and the CipherTrust Data Security Platform.
In fact, SmartCrypto is the first provider in Africa to deliver HSM infrastructure as a hosted, managed service.
For procurement, that’s one vendor relationship covering the full cryptographic stack.
The thread connecting it all
SmartCrypto’s approach is built on a nine-layer architectural model called the Crypto Framework. At its core is a concept called the Golden Thread.
Every identity in your environment needs to be cryptographically bound to the data it accesses.
That applies to users, devices, applications and services alike. When that chain is intact, access is verified by cryptography, not assumed.
That’s the technical reality of Zero Trust: not a product, not a policy document, but a cryptographic property of your infrastructure.
The framework structures how that property gets built, maintained and governed, from the hardware root of trust through to compliance and operational oversight.
Starting right for what’s coming
The transition to post-quantum cryptography is no longer a distant concern.
NIST finalised its first post-quantum algorithm standards in 2024, and regulatory guidance is following.
The “harvest now, decrypt later” threat is already active.
Adversaries are collecting encrypted traffic today on the assumption they’ll be able to break it once quantum computing matures.
The same Thales report found that 61% of security professionals already cite this as their top quantum concern.
For financial institutions, healthcare providers and anyone holding long-lived sensitive data, that’s not a theoretical risk.
The practical step most security teams should be taking now isn’t waiting for quantum to arrive.
It’s achieving cryptographic agility: the ability to rotate algorithms, replace keys and update trust infrastructure without rebuilding systems from scratch.
That means centralising key management, automating certificate lifecycle processes and establishing clear ownership of cryptographic systems.
The teams best positioned to respond the future challenges of quantum computing are those with centralised key management and certificate lifecycle processes already in place.
MCS provides that foundation now, so algorithm transitions are manageable when the time comes.
Article source: Why managed cryptographic services will become the next evolution of cybersecurity – MyBroadband
