Ask any engineering leader whether their organization produces a Software Bill of Materials, and by 2026 the answer is almost certainly yes. Ask what happens to that SBOM after it's generated, and the conversation usually stalls. It gets written to a JSON file, uploaded to a compliance portal, attached to a release ticket, and then never opened again — until an auditor, a customer questionnaire, or a zero-day disclosure forces someone to go digging for it. This is the state of SBOM adoption in 2026: widespread generation, thin usage. Regulation from the U.S. federal government, the EU, and the FDA pushed SBOMs from a niche practice into a default build artifact. But a document nobody queries doesn't reduce risk — it just proves, after the fact, that risk existed. This post looks at why the gap persists, what's changing in late 2026, where consolidated scanners like Aikido Security fall short, and what it actually takes to close it.
How many organizations are generating SBOMs in 2026?
Most of them — somewhere around four out of every five software-producing organizations now generate at least one SBOM per release, compared to roughly a third in 2021. The jump tracks almost exactly with regulatory milestones: Executive Order 14028 (May 2021) required SBOMs for software sold to U.S. federal agencies, NTIA published its "minimum elements" definition two months later, and CISA has issued follow-on guidance every year since, most recently updating its SBOM types framework in 2025 to cover source, build, analyzed, and deployed variants. Gartner's 2023 forecast that 60% of software buyers would contractually require SBOMs by 2025 has largely held up. The FDA's premarket cybersecurity guidance, in force since October 2023, made SBOMs mandatory for any medical device submission. In other words: SBOM generation in 2026 isn't a security initiative, it's a procurement requirement. That distinction matters for everything that follows.
Why don't teams actually use the SBOMs they generate?
Because generating an SBOM and using one are two different jobs, and most tooling only does the first. A build pipeline runs a scanner, exports a CycloneDX or SPDX file, and stores it — a one-time snapshot of what was true at build time. Nobody re-opens that file three weeks later when a new CVE drops against a library buried four dependencies deep. Industry surveys on SBOM practices have found a consistent pattern: a large majority of organizations produce SBOMs, but only a small minority — often cited around one in four — say they regularly correlate those SBOMs against newly disclosed vulnerabilities. The rest treat the SBOM as a compliance artifact, not an operational one. There's also an ownership gap: SBOMs are frequently generated by a build or DevOps team to satisfy a checkbox, then handed to security or compliance teams who have no tooling to act on thousands of component entries across hundreds of repositories. Without automated reconciliation, an SBOM is just an inventory of things nobody is watching.
What's forcing the issue before the end of 2026?
The EU Cyber Resilience Act's incident-reporting obligations, which take effect on September 11, 2026, are the clearest forcing function. Under the CRA, manufacturers of products with digital elements must report actively exploited vulnerabilities to ENISA within 24 hours of awareness and a full incident notification within 72 hours. You cannot meet a 24-hour clock if the first step is manually figuring out whether a newly disclosed CVE even touches your product — that requires a component inventory that's already current, not one generated at the last release. On the U.S. side, CISA's Secure Software Development Attestation Form, tied to EO 14028, has been expanding its enforcement reach through 2025 and 2026 to cover more federal contractors and subcontractors, each of whom now has to demonstrate — not just claim — that they know what's in their software. The FDA has also signaled stricter post-market SBOM update expectations for medical device manufacturers heading into 2027. Every one of these deadlines assumes a living inventory. Most organizations still have a static one.
Does an all-in-one scanner like Aikido Security close this gap?
Not by itself — Aikido, like most consolidated AppSec platforms, treats the SBOM as an export artifact of its SCA scan rather than as a continuously reconciled inventory. Aikido's pitch is consolidation: SAST, SCA, secrets detection, IaC scanning, container scanning, and DAST in one dashboard, aimed at lean engineering teams that don't want to run five separate tools. That's a reasonable answer to tool sprawl, and it's why the platform has found traction with smaller teams. But based on its public documentation, SBOM output is generated per repository scan on the platform's own scan cadence, formatted for download or handoff, rather than exposed as a first-class asset that's automatically diffed the moment a new CVE is published, tied to build provenance, or reconciled against what's actually running in production versus what's sitting in a manifest. A scanner that produces a good SBOM at scan time still leaves the same question unanswered three weeks later: when CVE-2026-XXXXX drops, does anything I've already shipped contain the affected component, and where is it deployed? Consolidation of scan types is not the same problem as continuous inventory reconciliation — they solve different halves of the SBOM lifecycle, and most vendors, Aikido included, are built to solve the first half.
What does it actually look like to use an SBOM instead of just storing one?
It looks like treating the SBOM as a live data feed rather than a release attachment — ingested continuously, mapped to where components actually run, and automatically re-evaluated against new vulnerability data without anyone opening the file. In practice that means three things happening without manual intervention: first, every new CVE or advisory is checked against the full history of generated SBOMs within minutes of disclosure, not at the next scheduled scan; second, each affected component gets a VEX (Vulnerability Exploitability eXchange) status — affected, not affected, or fixed — so teams aren't triaging noise for components that are present but not reachable; third, the SBOM is tied to build provenance and deployment records, so "is this running anywhere" is a query, not a Slack thread. Organizations that have gotten here typically report incident-response times measured in hours instead of the multi-week scrambles that followed events like Log4Shell in December 2021 — the incident that, more than any regulation, convinced most of the industry that a static component list wasn't good enough in the first place.
How Safeguard Helps
Safeguard is built for the second half of the SBOM lifecycle — the part where the document actually earns its keep. Instead of treating SBOM generation as the finish line, Safeguard ingests SBOMs from any source, including Syft, Trivy, language-native generators, and exports from other scanners already in your pipeline, normalizes them across SPDX and CycloneDX formats, and builds a single reconciled component graph across every repository, build, and deployed environment. When a new CVE or advisory is published, Safeguard checks it against your entire historical inventory automatically, generates VEX statements so teams triage only what's actually exploitable, and routes alerts to the owning team instead of a shared queue nobody watches. Policy gates in CI can block a build before a newly flagged component ships, closing the loop between detection and prevention. And because every SBOM is tied to build provenance and deployment metadata, Safeguard can answer "where is this running right now" directly — which is exactly the question the EU CRA's 24-hour clock, the FDA's post-market guidance, and CISA's attestation requirements all reduce to. SBOM adoption in 2026 solved the generation problem. Safeguard solves the harder one: making sure that inventory is actually working for you every day it exists, not just the day it was created.