Security | Threat Detection | Cyberattacks | DevSecOps | Compliance

Confidential and sensitive data moves across the dark web every second of every day, and that stolen data has become a reliable fuel source for breaches. In 2025, reports from Cybernews revealed that researchers had uncovered roughly 16 billion exposed credentials and that artificial intelligence (AI) now accelerates what attackers can do with that data once they have it.

Organizations keep their databases behind firewalls for a reason: the data inside is the data they can least afford to lose. A new class of AI middleware–Model Context Protocol (MCP) servers–exists specifically to reach into those protected systems on an AI model's behalf. One of them, DBHub, connects directly to SQL databases.

Shadow IT used to mean employees spinning up unsanctioned software-as-a-service (SaaS) apps that stored company data without approval. Today, shadow MCP and unsanctioned LLM integrations represent the next evolution, and they're more dangerous. Model context protocol (MCP) servers don't merely store data; they act on it, executing code, calling APIs, and accessing internal tools on behalf of AI agents that developers connect with a config file.

Higher education institutions are the most targeted sector for cyberattacks. Yet the teams responsible for managing that risk often face a structural disadvantage: they’re accountable for a vendor ecosystem they can’t fully see. Academic autonomy and the scale of university operations mean that vendors enter the institution through departments, research groups, and administrative teams before InfoSec has full visibility. This challenge is built into how higher education operates.

Higher education institutions don’t run on a single vendor ecosystem. They run on dozens of overlapping ones. Teaching, research, identity, payments, student services, cloud infrastructure, alumni engagement, and campus operations all rely on different third-party vendors. These often enter the institution through departments and administrative teams before InfoSec becomes aware of them. This is the operational reality that higher education TPRM software addresses.

A threat intelligence platform (TIP) is the software layer that bridges the gap between raw threat data and your team's security decisions. It aggregates signals from open, deep, and dark web sources, normalizes indicators of compromise (IOCs), enriches them with context like reputation scores and malware family attribution, and maps adversary tactics, techniques, and procedures (TTPs) so analysts can act instead of investigating.

First made famous by Bear Bryant in the 1970s, “defense wins championships” has since become a popular sports adage that’s at times overused. But when it comes to the sprawling attack surface of modern athletic events, like the tri-hosted 2026 World Cup or the Super Bowl, that cliché applies just as much to cybersecurity as it does to the playing field. Modern sports franchises are no longer just athletic clubs.

Sales enablement is the process of equipping sales teams with the content, tools, training, and information they need to engage buyers effectively and close deals. Most organizations scope it to pitch decks, competitive battlecards, CRM workflows, and onboarding programs — and in doing so, they overlook a component that quietly costs them deals: the security review.

Every security team runs vulnerability scans. It’s the follow-up questions that cause headaches: Which of these 12,000 findings matter, who owns the fix, and how do we prove it held? Staring at a massive spreadsheet of identical "Critical" alerts while chasing down overstretched infrastructure teams isn't only tedious, it's a guaranteed path to burnout. That exhausting gap between finding flaws and getting them fixed is exactly where most security programs stall.

In 2023, a single-file-transfer vulnerability enabled attackers to access hundreds of organizations simultaneously. Not only did they steal data, they immediately posted it to dark web extortion sites before most victims even knew they'd been hit. It was the MOVEit Transfer breach, and it exposed a gap that most corporate security stacks still haven't closed: the difference between stopping an attacker inside your network and finding your data after it's already left your network.