This post is for security leaders and CISOs evaluating AI governance tools. If you want to compare Bright Security and Corridor for securing AI across development, deployment, and user interaction points, you’ve come to the right place.
Both tools we compare in this post can help reduce risk, but they solve only parts of the problem. Additionally, Knostic adds end-to-end AI governance on top, so you can see and control everything your AI touches, not just code or a few workflows.
We started by mapping how each platform handles real enterprise AI use, not just marketing promises. The focus was on four significant capability areas that affect CISOs every day. Each capability area was scored using a simple 0-2 rubric (0 = not supported, 1 = partial, 2 = strong native support) and weighted equally to ensure no single category dominated the outcome.
The first capability was AI assistant security, because most knowledge workers now use chatbots or copilots, and over 70% of companies already use AI in at least one business function. The second area was AI coding safety, since, according to Gartner projections, 75% of enterprise software engineers are expected to use AI code assistants by 2028. The third area was governance, risk and compliance, including audit trails of inferred access, board-level reporting, M&A risk mapping, data retention, and regulatory oversight. The fourth area was AI attack-simulation, including pre-adoption assessments, blast-radius modelling, and red-team style testing for LLMs.
For each capability, I looked at public documentation, customer stories, and live product demos where available, then overlaid Knostic’s own controls to make the comparison clear.
Table 1: Platform Capability Comparison - Bright Security vs. Corridor vs. Knostic
|
Capability Category |
Bright Security |
Corridor |
Knostic |
|
AI Assistant Security |
Secure workflows and assistant interactions inside dev contexts |
Policy-based workflow controls and limited blocking |
Enterprise-wide assistant visibility and policy enforcement |
|
AI Coding Safety / Secure AI-Assisted Development |
Code scanning and vulnerability detection |
Secure development workflows and pipeline checks |
Runtime guardrails, secrets protection, and CI/CD enforcement |
|
Governance, Risk and Compliance |
Developer-focused application security with operational reporting and manual audit trails; limited board-level visibility and M&A risk assessment capabilities. |
Policy-driven compliance with partial assistant activity logs and board-level summaries; workflow-based regulatory controls with limited M&A risk oversight. |
Complete AI governance with full activity logging, executive board reporting, automated data retention, M&A risk mapping, and comprehensive regulatory frameworks purpose-built for AI oversight. |
|
AI Attack-Simulation |
Application red teaming only; no pre-adoption assessments, blast radius modeling, or LLM red teaming. |
Some pre-adoption evaluation workflows with limited behavior probing; no blast radius modeling or LLM red teaming. |
Complete AI security testing with pre-adoption risk assessments, blast radius modeling, adversarial simulation frameworks, and native LLM red teaming capabilities. |
Want to see how Knostic's AI security capabilities work in your environment? Schedule a chat with our team.
Bright Security and Corridor both help reduce risk, but they start from different places. Bright is rooted in application and code security, while Corridor is oriented around workflow controls and developer process governance. Knostic is built primarily for AI governance across the enterprise, covering assistants, coding, data, and simulation in one platform.
Bright Security focuses on application and API security, Corridor focuses on developer workflows, and Knostic focuses on end-to-end AI governance. Bright is strongest when scanning and testing applications. Corridor is useful when the priority is structured developer workflows and policy execution. Knostic extends beyond both by adding unified AI activity visibility and enterprise governance controls. Customers report materially reduced incident investigation time when unified visibility replaces fragmented tools.
AI assistant security coverage is significantly limited in Bright and Corridor. Bright and Corridor provide partial visibility into tools or pipelines. Knostic provides organization-wide visibility into which AI assistants are used, what data they touch, and how policies are enforced across browsers, SaaS, and developer tools.
AI coding safety is implemented differently. Bright and Corridor emphasize scanning and testing. Knostic adds runtime enforcement, blocking unsafe AI-generated code patterns such as secret exposure or policy violations inside CI/CD, not just inside the IDE. Early adopters report fewer policy regressions and rework cycles as a result.
Risk, governance, and compliance are most substantial in Knostic. Bright and Corridor can support aspects of security reporting. However, they are not built around executive reporting, inferred-access audit trails, M&A AI-risk mapping, and regulatory evidence. Knostic is designed to give CISOs, DPOs, and compliance teams enterprise-level oversight, including board-ready reporting dashboards and audit trails of inferred access.
AI and attack-simulation security is where Knostic differentiates itself. Bright and Corridor lean on general application testing methods. Knostic adds AI-specific capabilities, including pre-adoption LLM risk assessments, blast-radius modelling for AI data exposure, and red-team simulation. These controls allow organizations to test not only applications but also AI behavior before and after deployment.
For many organizations, Knostic is the better long-term platform because it unifies capabilities. Bright Security and Corridor each cover parts of the problem space well, especially for application or developer-centric use cases. Knostic, on the other hand, connects assistants, code, data, and governance into a single model so enterprises can manage AI risk consistently, reduce tool sprawl, and demonstrate control to regulators and boards. In customer pilots, this consolidation has also reduced operational overhead associated with managing multiple point tools.
|
Category |
Sub-Capability |
Bright Security |
Corridor |
Knostic |
|
AI Assistant Security |
Visibility & usage discovery |
✖️ Limited |
⚠️ Partial |
✅ Full enterprise visibility |
|
Policy enforcement across assistants |
✖️ Tool-specific |
⚠️ Workflow-based |
✅ Unified, cross-tool enforcement |
|
|
Assistant interaction monitoring |
⚠️ Narrow scope |
⚠️ Limited |
✅ Comprehensive |
|
|
Preventing prompt misuse |
⚠️ Indirect |
⚠️ Policy guidance |
✅ Active prevention |
|
|
AI Coding Safety / Secure AI-Assisted Development |
Secure AI code generation |
⚠️ Scanner-based |
⚠️ Pipeline checks |
✅ Runtime guardrails |
|
Blocking hard-coded secrets |
⚠️ After the fact |
⚠️ Partial |
✅ Real-time blocking |
|
|
CI/CD enforcement |
⚠️ Integrations |
✅ Yes |
✅ Native and continuous |
|
|
Repository & IDE coverage |
✅ Yes |
✅ Yes |
✅ End-to-end |
|
|
AI model supply-chain controls |
✖️ Not available |
✖️ Not available |
✅ Yes |
|
|
Secure suggestion filtering |
✖️ Not available |
✖️ Not available |
✅ Yes |
|
|
Risk, Governance & Compliance |
Audit Trail of Inferred Access |
✖️ Not available |
⚠️ Partial |
✅ Full |
|
Board-Level Reporting |
✖️ Security focused only |
⚠️ Operational |
✅ Built for executive AI governance |
|
|
M&A Risk Mapping |
✖️ Not available |
✖️ Not available |
✅ Native AI risk mapping |
|
|
Data Retention & Hygiene |
⚠️ App-focused |
⚠️ Policy-based |
✅ Automated |
|
|
Regulatory Oversight |
⚠️ Security alignment |
⚠️ Workflow alignment |
✅ AI regulation alignment |
|
|
Executive Access Monitoring |
✖️ Not available |
⚠️ Partial |
✅ Complete |
|
|
Insider Risk & Zero-Trust Validation |
⚠️ AppSec view |
⚠️ Policy checks |
✅ AI-specific insider risk |
|
|
AI & Attack Simulation Security |
Pre-Adoption Security Assessment |
✖️ Not available |
⚠️ Vendor eval workflows |
✅ Built-in |
|
Blast Radius Modelling |
✖️ Not available |
✖️Not available |
✅ Yes |
|
|
Red Team Simulation |
⚠️ AppSec-centric |
⚠️ Limited |
✅ AI-specific |
|
|
LLM Red Teaming |
✖️Not available |
✖️ Not available |
✅ Native |
Legend:
✅ = strong native capability (labelled “Strong” in the web version)
⚠️ = partial/indirect capability (labelled “Partial” in the web version)
✖️ =not supported / not available as a core capability (labelled “Not supported” in the web version)
Knostic gives companies complete visibility into how AI is actually being used across the organization. It discovers all AI assistants in browsers and developer environments, so you know what’s running and what data it touches. This solves one of the most significant gaps in enterprise AI security: Shadow AI that no one sees. Instead of guessing or relying on manual surveys, security teams get real-time discovery and tracking.
Knostic uses continuous browser and IDE telemetry to identify assistant usage and associated data flows, and then maps them to policy. Policies can then be enforced consistently across tools, reducing accidental data leakage. This makes monitoring and controlling AI usage much easier for CISOs, compliance leaders, and governance teams, turning “hidden AI behavior” into observable, enforceable controls.
Knostic actively governs how AI assistants respond to prompts, helping prevent out-of-policy responses before they happen. More precisely, the platform uses continuous prompt interception and policy evaluation to check content before model execution, and applies allow/deny actions based on data sensitivity and enterprise policy. By understanding request context and data sensitivity, Knostic blocks unsafe or unauthorized outputs before they happen. This mechanism focuses on enforcement of controls (not model tuning), ensuring that responses containing restricted data categories are intercepted or redacted at runtime.
Teams can define policies that meet their compliance needs, such as prohibiting the export of regulated data, customer PII, or IP. Knostic applies those policies dynamically across every assistant and endpoint, so risky prompts are flagged or blocked before data exposure. This type of proactive control is a paramount reason security and governance teams pick Knostic.
Knostic prevents sensitive data from entering AI prompts or being returned in responses. It integrates with data governance frameworks to automatically know what is sensitive and why it matters, then applies rules to manage its handling with AI. Technically, this is accomplished through data classification integration, entity recognition, and policy enforcement during prompt construction and response generation.
Instead of relying on user discipline, Knostic enforces policy at scale across enterprise environments. This ties directly to data retention and hygiene, regulatory oversight, and insider risk. With audit trails and reporting, teams can prove controls worked if regulators or auditors ask. Every enforcement action is logged, producing auditable evidence without relying on manual documentation. For many organizations, this assurance layer is what makes AI safe enough for production use.
Kirin by Knostic Labs extends security into AI-assisted development and the broader AI supply chain. It adds runtime guardrails to block unsafe AI-generated code, secret leaks, and unsafe patterns before they enter codebases. Specifically, Kirin enforces policies across CI/CD pipelines and developer tooling using pattern detection, secret discovery, and policy-as-code engines that evaluate AI-generated commits before they are merged. These controls apply across IDEs, repositories, and CI/CD pipelines, ensuring that generated code is compliant and secure. The approach goes well beyond static scanning, which only finds issues after the fact, by enforcing policies as code is written and integrated.
For teams building with LLM-assisted tools, Knostic protects every stage of development and deployment, helping to reduce risk and streamline governance across people, processes, and technology.