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Aikido vs Koi: device/browser protection comparison

Aikido Security and Koi Security solve different layers of risk. Heres how they compare on device/browser protection, and where Safeguard fits in.

James
Principal Security Architect
8 min read

Security and platform teams researching "Aikido vs Koi Security" are usually trying to solve two different problems with one search. Aikido Security markets itself as an all-in-one application security posture management (ASPM) platform, aggregating SAST, DAST, software composition analysis, container and infrastructure-as-code scanning, and cloud posture checks under a single dashboard. Koi Security occupies a narrower, newer niche: monitoring the browser extensions, IDE plugins, and SaaS-connected apps that employees install on their own devices, a category often called "extension risk" or third-party app supply chain risk. Comparing them head-to-head only makes sense once you know which layer of your stack you're actually trying to protect. This piece breaks down what each vendor is publicly positioned to do, where the "device and browser protection" framing gets stretched thin for either of them, and where Safeguard fits for teams that need software supply chain coverage that extends past the browser tab and into the build pipeline itself.

What Problem Is Each Tool Actually Solving?

The confusion behind "Aikido vs Koi Security" usually starts because both companies sell into the same buying committee — application security and platform engineering — but they solve materially different problems.

Aikido Security's public positioning is that of a consolidated ASPM layer: it connects to source repositories and cloud accounts, runs a mix of open-source and proprietary scanners, and surfaces a triaged list of code, dependency, container, and cloud misconfiguration findings. Its value proposition is breadth and noise reduction across the traditional AppSec scanning categories.

Koi Security's public positioning is narrower and more specific: it focuses on the risk introduced by browser extensions, IDE extensions (VS Code, JetBrains, etc.), and other third-party software that lands directly on an employee's device outside of the normal code-review or CI pipeline. This is a distinct attack surface from source code or cloud configuration — it's software that was never written by your engineers but still runs with access to their credentials, clipboard, and browser sessions.

If your search intent is "which tool catches a malicious npm package in my CI pipeline," you're asking an ASPM question that maps more closely to Aikido's category. If your intent is "which tool tells me an employee just installed a browser extension that exfiltrates cookies," you're asking a device/extension-risk question that maps more closely to Koi's category. Neither company competes head-on in the other's core lane, which is worth knowing before you build a bake-off spreadsheet that assumes feature parity.

Does "Browser and Device Protection" Mean the Same Thing to Both Vendors?

This is the part of the "aikido vs koi security" comparison that trips people up. Aikido Security's scanning categories — SAST, DAST, SCA, container, IaC, cloud posture — are about code and infrastructure your organization owns and controls. That is not the same as monitoring what happens on an individual's laptop or in their browser after a Chrome extension gets installed from the Web Store.

Koi Security's model is built specifically around that gap: continuous inventory and risk scoring of extensions and third-party integrations that touch corporate devices and SaaS accounts, independent of whether that software ever passed through a CI/CD pipeline or a code review.

So when a search results page lumps these two together under "device/browser protection," it's worth reading vendor documentation carefully rather than assuming overlapping feature sets. A platform that scans your Git repositories for hardcoded secrets is not, by default, also inventorying browser extensions across your fleet — and a tool built for extension risk scoring is not, by default, running dynamic application security testing against your production web app. Confirm the specific control you need exists in the specific product, rather than assuming category adjacency implies functional overlap.

Where Does Safeguard's Scope Differ From Aikido Security's?

Safeguard is built around a narrower thesis than a general ASPM aggregator: software supply chain integrity, specifically the trust chain between a dependency, its build process, and the artifact that eventually reaches production. Two concrete, verifiable differences in scope are worth calling out for teams comparing platforms:

  1. Aggregation vs. provenance-first design. Aikido Security's public documentation describes itself as consolidating multiple scanning categories (SAST, DAST, SCA, secrets, containers, IaC, cloud) into one interface, largely oriented around finding and triaging vulnerabilities across code and infrastructure you already own. Safeguard is built around a different starting question — not just "is this dependency vulnerable," but "is this dependency, and the pipeline that built it, actually what it claims to be." That means Safeguard's core data model is centered on build provenance, artifact signing/attestation, and CI/CD pipeline integrity, rather than being organized primarily around vulnerability-scanning categories.

  2. Pipeline-native focus vs. broad category coverage. Aikido's category breadth (cloud posture, container scanning, IaC, DAST) means it covers ground well outside the software supply chain proper. Safeguard deliberately stays focused on the supply chain layer — package registries, build systems, CI/CD runners, and the dependencies flowing through them — which is a narrower but deeper surface area than a general ASPM platform typically prioritizes.

Neither of these is a claim about which approach is "better" in the abstract — a team that wants one dashboard for cloud posture, IaC, and application vulnerabilities may reasonably prefer an aggregator model. A team whose primary exposure is malicious or compromised dependencies, typosquatted packages, or unverified build artifacts is solving a more specific problem that a supply-chain-first platform is built to address directly.

How Should You Actually Evaluate These Platforms?

Rather than treating "Aikido vs Koi Security" as a single decision, break the evaluation into the layers you actually need to defend:

  • Source and build pipeline: Who scans and verifies what happens between a developer committing code and an artifact shipping to production? This is where provenance, SBOM generation, and dependency integrity checks live.
  • Application and cloud surface: Who runs SAST/DAST/cloud posture checks against the applications and infrastructure you operate? This is the category Aikido Security's public positioning targets most directly.
  • Endpoint and browser surface: Who inventories and scores the extensions, plugins, and third-party integrations installed on employee devices, independent of your CI pipeline? This is Koi Security's stated focus area.

Very few organizations run a single platform that credibly covers all three layers today, and vendors that claim to should be pressed for specifics — ask for the actual list of detections, integration points, and data sources, not just the category label on the pricing page. If a vendor's demo can't show you a real, current example of the specific control you're evaluating, treat the category label with skepticism.

What Questions Should You Ask Before Signing a Contract?

Whichever tools end up on your shortlist, a few questions tend to separate marketing copy from operational reality:

  • Does the tool ingest and verify build provenance (e.g., SLSA-style attestations), or does it only scan source and dependency manifests after the fact?
  • Can the vendor show you, live, how a newly published malicious or typosquatted package would be flagged before it reaches a production build?
  • For browser/extension-focused tools: does detection require an agent on the endpoint, a browser policy push, or can it run passively off existing telemetry?
  • How does the tool handle false positives at the scale of your actual dependency tree — hundreds vs. tens of thousands of packages behaves very differently in practice than a sales demo suggests?
  • What is the actual data retention and access model for any credentials, tokens, or session data the tool needs to operate?

These are the questions worth asking Aikido Security, Koi Security, or any other vendor directly — the answers are far more useful than a generic feature-comparison matrix.

How Safeguard Helps

Safeguard is built for teams whose primary risk is the software supply chain itself: the dependencies your engineers pull in, the pipelines that build them, and the artifacts that reach production. Rather than trying to be a single dashboard for every AppSec category, Safeguard focuses on:

  • Build and artifact provenance — verifying that what gets deployed actually matches what was reviewed and built, with attestations tied to the CI/CD pipeline that produced it.
  • Dependency risk detection — surfacing malicious, compromised, or newly-suspicious packages in the registries your teams actually pull from, before they land in a build.
  • Pipeline integrity monitoring — treating your CI/CD configuration and runners as part of the attack surface, not just the code they execute.
  • SBOM generation and lifecycle tracking — so you have a durable, auditable record of what's actually running, which matters as much for incident response as it does for compliance frameworks like SOC 2.

If your team is evaluating Aikido Security and Koi Security because you're worried about different pieces of the same underlying problem — trusting the software that reaches your production environment — it's worth scoping a conversation with Safeguard specifically around the build-to-production trust chain. That's a narrower question than "which platform has the most scanning categories," but for many security teams it's the one that actually determines whether a compromised dependency gets caught before it ships.

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