IDOR-Vulnerability-KrishnaG-CEO

The One Number That Could Destroy Your Business: How IDOR Exposes Sensitive Data”

In the modern digital ecosystem, APIs (Application Programming Interfaces) form the backbone of communication between systems, applications, and users. They allow for seamless interactions, but they can also unwittingly open floodgates to catastrophic security breaches. Among the most insidious yet deceptively simple vulnerabilities are those tied to Insecure Direct Object References (IDOR).

Agentic-AI-Security-KrishnaG-CEO

Agentic AI Security Focus Areas: Strategic Guidance for C-Suite Executives and Penetration Testers

Agentic AI systems—autonomous artificial intelligence agents capable of reasoning, planning, and executing actions independently—are redefining digital transformation. These self-directed entities leverage multi-modal data, context awareness, and deep learning capabilities to perform tasks once reserved for humans. However, with increasing autonomy comes heightened responsibility. Ensuring these systems remain secure throughout their lifecycle is non-negotiable, especially for organisations operating in highly regulated sectors or those with sensitive customer data.
The Open Worldwide Application Security Project (OWASP) has provided a seminal guide to fortifying agentic AI systems. This blog offers a deep dive into the OWASP-recommended focus areas, bringing clarity to the security measures needed at every stage—from architectural design to post-deployment hardening. Targeted at C-suite executives and penetration testers, we translate technical depth into business-critical insights that focus on ROI, risk mitigation, and sustainable AI governance.

x-AI-VAPT-KrishnaG-CEO

Explainable AI in VAPT: Unpacking Business Logic for Penetration Testers

In the ever-evolving cybersecurity landscape, penetration testing (pentesting) has transitioned from being a compliance checkbox to a strategic imperative. With Explainable AI (XAI) entering the cybersecurity fold, particularly within Vulnerability Assessment and Penetration Testing (VAPT), there’s a transformative opportunity for businesses to align security outcomes with strategic insights. But the real question is — can Explainable AI truly assist penetration testers in understanding business logic vulnerabilities?

Explainable AI in Information Security

In the escalating arms race between cyber defenders and attackers, artificial intelligence (AI) has emerged as a force multiplier—enabling real-time detection, adaptive response, and predictive threat intelligence. However, as these AI systems become increasingly complex, their decision-making processes often resemble a black box: powerful but opaque.
In sectors like healthcare or finance, the risks of opaque AI are already well-documented. But in cybersecurity—where decisions are made in seconds and the stakes are existential—lack of explainability is not just a technical inconvenience; it’s a business liability.
Security teams are already burdened by alert fatigue, tool sprawl, and talent shortages. Introducing opaque AI models into this environment, without explainable reasoning, exacerbates operational risks and undermines confidence in automated systems.
In a field that demands accountability, Explainable AI (XAI) isn’t a luxury—it’s a necessity.
From Security Operations Centre (SOC) analysts to CISOs and regulatory auditors, all stakeholders need clarity on what triggered a threat alert, why an incident was escalated, or how a threat actor was profiled. Without this transparency, false positives go unchallenged, real threats slip through, and strategic trust in AI-based defences begins to erode.
In this blog, we’ll explore how Explainable AI—XAI—helps transform cyber defence from a black-box model to a glass-box ecosystem, where decisions are not only accurate but also interpretable, auditable, and accountable.

xAI-Cyber-Security-KrishnaG-CEO

🔍 Explainable AI in Cybersecurity: Making Defence Decisions Transparent and Trustworthy

Cybersecurity AI systems ingest terabytes of structured and unstructured data—logs, network traffic, endpoint signals, emails—to detect threats and anomalies. These systems often use complex models like Random Forests, Deep Neural Networks, or Unsupervised Clustering techniques.