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Wayam AI
Public SectorSafety & SecurityRepresentative scenario

Securing a University's Research Infrastructure

A large public university runs a sprawling IT environment: student portals, research lab servers, faculty intranets, IoT devices in smart buildings, and shared HPC (High-Performance Computing) clusters. The central IT security team of two people is responsible for securing all of it. They have no budget for commercial penetration testing tools and limited time for manual assessments.

Run on Vedha · Security & Assurance

Many varied open structures brought under one consistent protection

The challenge

    01

    The university's network spans hundreds of subnets with thousands of hosts many managed by individual departments with no centralized oversight.

    02

    Research servers often run outdated software (old Linux kernels, unpatched Apache/Tomcat instances) because researchers prioritize experiment continuity over patching.

    03

    A recent ransomware incident at a peer institution has prompted the university's CIO to demand an immediate security posture assessment.

How Vedha solves it

    01

    Broad Network Reconnaissance

    The IT team configures a VEDHA Flow with the goal: "Perform network-level reconnaissance and vulnerability assessment across the 10.0.0.0/8 research subnet. Identify exposed services, outdated software, default credentials, and critical misconfigurations."

    02

    Docker-Isolated Scanning

    VEDHA spawns a sandbox container pre-loaded with 'nmap', 'nikto', and 'hydra'. The Primary Agent systematically scans subnets, discovers live hosts, fingerprints services, and tests for known CVEs all within the isolated container, preventing any accidental disruption to research workloads.

    03

    Context Chain Summarization

    Scanning hundreds of hosts generates enormous amounts of terminal output. VEDHA's Summarizer Agent and the 'csum' library compress thousands of lines of 'nmap' output into structured Q&A summaries, keeping the agent's context window focused on actionable findings rather than drowning in raw data.

    04

    Semantic Memory for Cross-Host Correlation

    As findings accumulate, the pgvector semantic memory store allows VEDHA to correlate patterns across hosts. When the agent notices that 15 different research servers all run the same vulnerable version of Apache Tomcat 8.5.31, it flags this as a systemic issue rather than 15 isolated findings.

    05

    Resilient Web Search

    When VEDHA encounters an unfamiliar CVE, the Web Search Orchestrator queries multiple engines (Google, DuckDuckGo, Sploitus) to retrieve exploit details and remediation guidance, falling back automatically if any single source is unavailable.

The outcome

IT team receives a comprehensive asset inventory
0+ hostsIT team receives a comprehensive asset inventory
found running services with known critical CVEs (CVSS ≥ 9.0
0 hostsfound running services with known critical CVEs (CVSS ≥ 9.0
  • The IT team receives a comprehensive asset inventory and vulnerability report covering 1,200+ hosts in under 72 hours-a task that would have taken months manually.

  • 47 hosts are found running services with known critical CVEs (CVSS ≥ 9.0), including 12 instances of a remote code execution vulnerability in an unpatched Tomcat installation.

  • The report enables the CIO to present concrete risk metrics to the university board and prioritize a targeted patching campaign.

Representative scenario: a modelled industry situation showing how this accelerator applies. Figures are projections, not a named client result.

Capabilities used

Every accelerator is assembled from the same capability layer, so a workflow you adopt here shares its foundation with the rest of the portfolio.

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