Verglos alongside Snyk, GitHub, Semgrep, Socket, and Gitleaks

\n\nThe world does not need another generic security scanner.

That is the first honest thing to say about Verglos.

Snyk exists. GitHub Advanced Security exists. Semgrep exists. Socket exists. Gitleaks and TruffleHog exist. npm audit and OSV exist. Many of these tools are excellent. Many are free or bundled into workflows developers already use.

So if Verglos is just another scanner, it loses.

But that is not the right category.

Verglos is built around a different premise:

AI-built software needs a security evidence layer, not just another list of findings.

That difference sounds subtle. It is not.

Generic scanners help developers find problems. Verglos helps founders, agencies, and AI-assisted teams prove that fast-built software was checked for the failure modes AI commonly introduces. The scan is free. The evidence is the product.

The problem with competing on detection alone

Snyk has more rules. GitHub has distribution inside the repo. Semgrep has a powerful rule engine. Socket is deeply focused on supply chain risk. Gitleaks and TruffleHog are strong at secret detection.

Trying to beat these companies only by saying we detect more things is a weak strategy. Detection is table stakes.

The better question is:

What do AI-assisted teams need that generic security scanners are structurally unlikely to prioritize?

The answer is a different output:

• AI provenance connected to risk, not used as a shame label
• Risk patterns that show up in fast AI-assisted app builds
• Checks that can happen before handoff, not only after production
• Founder-readable security scoring
• Client handoff reports
• Signed, dated, verifiable evidence

That is where Verglos can be meaningfully different.

Evidence from the ICP top 300 campaign

The most concrete answer to why do we need another scanner? is what happens when the AI-specific rules run against the code AI actually built.

In Verglos's ICP top 300 TypeScript & JavaScript campaign (293 successful scans on repos with ≥1,000 GitHub stars), AI-era app-layer patterns made up a large share of the serious risk surface: missing ownership checks, weak tokens, permissive CORS, stack leaks, and slopsquat-shaped dependency issues.

These are not obscure. They are the patterns a founder or agency needs checked before launch, handoff, or diligence.

The public proof is in the Verglos CLI repo: scan analysis, campaign summary report, selected per-repo reports, and methodology. The full campaign writeup is in the research note. The eight recurring patterns are broken down in the vulnerability patterns note.

Comparison table

Open data table

Capability	Verglos	Snyk	GitHub AS	Semgrep	Socket	Gitleaks / TruffleHog
Dependency vulnerability scanning	Yes	Yes	Yes	Partial	Yes	No
Secret detection	Yes	Partial	Yes	Rules-based	Partial	Yes
Static code pattern scanning	Yes	Yes	Yes	Yes	Limited	No
AI-authored code estimate	Yes	No	No	No	No	No
AI-specific vulnerability patterns	Yes	Limited	Limited	Custom rules possible	Limited	No
Slopsquat / hallucinated package focus	Yes	Limited	Limited	No	Yes, supply-chain oriented	No
MCP before-write guardrail	Yes	No	Limited / varies	No	No	No
Founder-readable score	Yes	Partial	Partial	No	Partial	No
Client handoff artifact	Yes	No	No	No	No	No
Signed evidence artifact	Core direction	No	No	No	No	No

The point is not that Verglos replaces every tool. It does not. The point is that Verglos owns a different buyer moment.

Snyk vs Verglos

Snyk is a mature developer security platform. It is strong at dependency security, container security, infrastructure-as-code scanning, and enterprise developer workflows. If your company has a security team, budget, process, and internal owners for remediation, Snyk makes sense.

Verglos is different because it is built for the AI-built software handoff problem.

A founder or agency owner does not only need to know that a dependency is vulnerable. They need to know:

• Did the AI-generated parts of this app introduce obvious risks?
• Are there secrets, weak tokens, missing ownership checks, or permissive defaults?
• Can I give a client or buyer a clean report?
• Can I prove this scan happened on a specific date?
• Can I show what was fixed?

Snyk helps security teams manage security programs. Verglos helps AI-assisted builders prove a project is safe enough to ship, sell, or hand over. That is a different buying motion.

GitHub Advanced Security vs Verglos

GitHub has the strongest distribution advantage because the code already lives there. Secret scanning, dependency alerts, code scanning, and pull-request integration are powerful. For larger teams, GitHub security tooling is a natural default.

But GitHub is repository infrastructure. Its product center is not the AI-built software trust problem.

Verglos differs in four ways:

1. It is AI-provenance aware — files scored as human, AI, or mixed authorship.
2. It is designed to produce a standalone report outside GitHub.
3. It can become agent-native through MCP before code is written.
4. It can package scan results into an attestation for clients and procurement.

GitHub can tell you there is a vulnerability in a repo. Verglos should tell you:

This AI-assisted project was scanned for AI-specific risks, these issues were found, these were resolved, and this dated report can be verified.

For founder-led companies and agencies, that distinction matters.

Semgrep vs Verglos

Semgrep is excellent for customizable static analysis. It is powerful because teams can write rules that match their codebase and security model. That is also why Semgrep is more naturally a developer/security-team tool.

Verglos should feel different:

• One command
• No account required for the free scan
• No rule-writing required
• AI-specific findings surfaced by default
• A score a non-security buyer can understand
• A report that can be sent to a client

Semgrep is a power tool. Verglos is a trust artifact generator for AI-built software.

Both can coexist. In fact, serious companies may use both. But they answer different questions.

Semgrep asks:

What code patterns violate our rules?

Verglos asks:

Can this AI-assisted codebase be trusted enough for launch, handoff, or diligence?

Socket vs Verglos

Socket is highly relevant because supply-chain risk is one of the clearest AI-era problems.

Large language models can hallucinate package names. Attackers can register plausible-looking packages. AI agents can suggest and install dependencies faster than humans can review them.

Socket is strong in supply-chain security. Verglos overlaps with Socket on slopsquat and suspicious package risk, but the wedge is broader:

• Package checks before install via MCP
• Non-existent package detection
• AI-authored code context
• Application-level findings like IDOR, stack leaks, weak tokens, CORS, and SQL injection
• Founder-readable evidence report

Socket helps answer:

Is this dependency risky?

Verglos helps answer:

Did this AI-built application accumulate the predictable risks AI coding workflows introduce?

Gitleaks / TruffleHog vs Verglos

Gitleaks and TruffleHog are strong secret scanners.

Verglos should not pretend secret detection alone is enough differentiation. Secret scanning is a crowded and mature space.

Where Verglos differs is the surrounding workflow:

• It scans secrets alongside AI-specific code risks.
• It includes git-history findings.
• It can explain why a secret matters in founder-readable terms.
• It can include secret remediation in a dated handoff artifact.

The practical insight is simple:

Finding a secret is useful. Proving it was rotated before client handoff is more valuable.

That is why evidence history matters. The live disclosure workflow note covers the rotation-first sequence Verglos itself uses when it surfaces a credential in someone else's repo.

The three Verglos differentiators

1. AI provenance

Verglos estimates how much of a codebase appears AI-authored or AI-assisted.

That alone is interesting, but not enough.

The real value comes when AI provenance is tied to finding density:

41% of this codebase appears AI-authored. AI-authored files carry 4.2x the finding density. 7 of 9 critical findings are in AI-generated areas.

That is a sentence a founder, agency owner, CTO, client, or investor can understand. Generic scanners usually do not care who wrote the code. Verglos does, because AI-generated code has predictable failure modes.

2. MCP before-write guardrails

Most scanners work after code exists. That is useful, but late.

Verglos has a stronger agent-native position:

The coding agent asks for a security verdict before writing risky code.

That concept changes the scanner from an auditor into a guardrail. Instead of scanning after the AI has already added wildcard CORS, weak token generation, or a dangerous dependency, the agent can ask for a verdict before the code lands.

This is important because AI coding workflows are fast. A scanner that only runs at the end is chasing the process. A before-write guardrail enters the process.

3. Signed evidence

This is the business model.

The scanner is free because scanner output is already cheap in the market.

The paid product should be:

• Attestation
• Public verification URLs
• White-label client reports
• SBOM export
• Evidence archive
• Remediation history
• Compliance-ready summaries

That makes Verglos more than a tool. It becomes a trust layer.

The value is not just we found issues. The value is:

Here is dated proof that this AI-built software was checked, what was found, what was fixed, and what remains.

The buyer difference

Generic security tools usually sell to:

• Security teams
• Engineering leaders
• DevSecOps teams
• Enterprise platform teams

Verglos should sell first to:

• Agency owners
• Startup founders
• CTOs of small AI-assisted teams
• Product studios
• Consultants delivering AI-built software

That matters because these buyers do not wake up wanting a scanner. They want to unblock a business moment:

• Client handoff
• Enterprise procurement
• Diligence
• Production launch
• Trust after AI-assisted buildout

For that buyer, the output matters as much as the detection. The report must be readable. The score must be simple. The artifact must be shareable. The evidence must be durable.

The positioning

Bad positioning:

Verglos is a cheaper Snyk for AI code.

Better positioning:

Verglos is the security evidence layer for AI-built software.

Bad positioning:

We find more vulnerabilities.

Better positioning:

We identify AI-specific risk, help prevent it before the agent writes it, and generate proof you can hand to a client or buyer.

Bad positioning:

AI code is dangerous.

Better positioning:

AI code is leverage. Verglos makes it accountable.

Final takeaway

Verglos should not try to win the existing scanner category head-on.

The opportunity is to create a new category around AI-built software trust.

The world already has scanners. What founders and agencies increasingly need is evidence:

• Evidence that AI-generated code was checked
• Evidence that serious risks were found
• Evidence that critical issues were resolved
• Evidence that a client can verify
• Evidence that procurement can understand

That is where Verglos is different. The full commercial framing lives in the security evidence layer positioning note.

Where Verglos fits

Run a free scan:

npx verglos

Then turn the result into evidence your client, buyer, or team can actually use. The Verglos product page documents shipped vs planned honestly. The source is Apache-2.0.\n