Citation and Commentary Notice. This article cites and comments on theSoftware Supply Chain Security Roadmap for the Age of Everyday AI (2026-06-24), publicly published by the Ministry of Science and ICT, the National Intelligence Service, and the Korea Internet & Security Agency, with attribution under Article 28 of the Copyright Act. The tables and diagrams in the original are not reproduced; the narrative and diagrams here are original work based on external primary sources. Attribution: Ministry of Science and ICT, National Intelligence Service, Korea Internet & Security Agency,Software Supply Chain Security Roadmap for the Age of Everyday AI, 2026-06-24.

Summary On June 24, 2026, the government released a roadmap outlining software supply chain security policy for the next three years. At its core are a transparency management model centered on the Software Bill of Materials (SBOM), a testbed and consulting program to help companies check their security, pilot certification to identify high-performing companies, and a rapid detection-and-response system. Notably, the roadmap places burden reduction for small and medium-sized enterprises throughout, reflecting an industry structure in which 81% of all software companies have fewer than 10 employees. Because the U.S. Food and Drug Administration (FDA)’s medical device approval process and the EU Cyber Resilience Act (CRA) have already made SBOMs a condition of market entry, this roadmap bears directly on the practical work of exporting companies, public-sector software vendors, and small and medium-sized software companies.

1. Nature of the Roadmap and Background to the Announcement

On June 24, 2026, the government released theSoftware Supply Chain Security Roadmap for the Age of Everyday AI at the Supply Chain Security Workshop held at the aT Center in Yangjae, SeoulA1·B-news-zdnet. The Ministry of Science and ICT, the National Intelligence Service, and the Korea Internet & Security Agency (KISA) prepared it jointly with related ministries, and KISA is the publisherA1. Rather than a law or notice, it is an administrative planning document setting out policy direction for the next three years; many of its individual tasks will gain normative force only after legal and institutional reform, guideline publication, and certification-system reorganizationA1.

The announcement followed an already-signaled path. When the government released theSW Supply Chain Security Guideline 1.0 in 2024, it stated that it would form a joint industry-academia-research task force in the second half of the year to discuss the direction of institutionalization and then prepare a roadmapD6; after the Ministry of Science and ICT and the National Intelligence Service agreed on December 24, 2025 to build a government-wide cooperation frameworkB-news-etnews, that process led to this announcement. The government has consistently described 2027 as its target for institutionalizationB-news-zdnet.

The roadmap declares its vision as “securing cyber resilience through a transition to a safe and responsible supply chain security system,” converging this into three pillars: prevention, recovery, and foundationA1. Beneath these sit three implementation strategies and nine detailed tasks.

Figure 1. The vision, the three strategies, and each strategy’s core tasks(compiled for this report; see §5 for external sources).

2. Prevention — Building In Security and SBOM Transparency

The prevention strategy starts from establishing standards and guidance that build security into the software lifecycle as a whole. The roadmap presents a “secure SW development methodology” that draws on the National Institute of Standards and Technology (NIST)’s Secure Software Development Framework (SSDF, SP 800-218), and states that it will place activities such as defining security requirements, secure coding, vulnerability re-verification, and code signing at each stage — planning and design, development, testing, and deploymentA1·B5. Its predecessor, theSW Supply Chain Security Guideline 1.0, will be upgraded to a practically usable 2.0. The direction is to broaden open source management, which had centered on licensing, to cover security as well; to extend development security, which had focused on self-developed code, across the full supply chain; and to newly add the use of automated security compliance toolsA1·A2.

SBOM is the core instrument of the transparency task. An SBOM is a specification that describes information about a software’s components; domestically it is also called a “software component specification,” among other names. The roadmap identifies exporting companies and high-impact sectors as the priority targets for applying the SBOM management modelA1. For exporting companies, the direct drivers are the U.S. FDA’s medical device approval process, the U.S. Department of Commerce’s SBOM management obligation for connected vehicles, and the EU CRA’s SBOM obligation for products with digital elementsA1·B7·B1; high-impact sectors include security software, socially foundational software such as finance and transportation, and software handling sensitive information such as health and medical dataA1.

The data format is effectively already settled. The International Organization for Standardization (ISO) standardized the Linux Foundation’s SPDX as ISO/IEC 5962:2021C4, and OWASP’s CycloneDX was standardized as ECMA-424, published in December 2025C5. The roadmap’s statement that it will “derive the minimum SBOM items so they do not function as dual regulation,” made with an eye to the National Telecommunications and Information Administration (NTIA)’sThe Minimum Elements For a Software Bill of Materials (2021) and the CRA’s requirements, is a design aimed at aligning with this international formatA1·C1. Format compatibility is only the starting point; the roadmap itself names verifying SBOM trustworthiness and safely distributing the vulnerability information it contains as remaining tasksA1. An SBOM raises transparency but can also reveal to attackers which components carry which vulnerabilities, so designing the right balance between generation and sharing is the key question for the follow-on guidelinesA1.

3. Recovery — Rapid Detection, Risk Management, and Reducing the Burden on Companies

The detection-and-response strategy centers on expanding the scope of KISA’s security vulnerability reward program (bug bounty), which it has run since October 2012D2, and on progressively expanding Coordinated Vulnerability Disclosure (CVD) and a Vulnerability Disclosure Policy (VDP)A1. To introduce security condition inspections for Internet of Things (IoT) appliances such as robot vacuums and IP cameras and for network-connected devices such as solar inverters, the government is pursuing an amendment to the Act on Promotion of Information and Communications Network Utilization and Information Protection, etc. (Network Act)A1.

The risk management system is split into public and private sectors. In the public sector, the government will develop an SBOM management framework that includes Vulnerability Exploitability eXchange (VEX) information at the reliability-assurance stage, and will build an integrated public-sector SBOM management system and a vulnerability information database in stagesA1. In the private sector, it will establish a standing management framework for high-risk vulnerabilities, and set a goal of shortening the response period “from an average of more than four months to within three days” through a cleaning service (C-Clean) that, once a vulnerability is found, requests a patch from the manufacturer and performs a mass removal via antivirus softwareA1.

The support companies actually feel is concentrated in inspection and diagnosis and in the distribution of tools and personnel. The roadmap states that it will expand testbeds where companies can use SBOM generation and vulnerability inspection tools, drawing on existing facilities such as the Development Security Hub and the National Cyber Security Center (NCSC) in Pangyo, and will add checks against global regulations such as medical device approval and the EU CRA to the menuA1. For small and medium-sized software development companies, it has placed consulting to analyze and diagnose development infrastructure and management systems starting in 2026, and the distribution of cloud-based development environments and security solutions starting in 2027A1. A defining feature of the roadmap overall is that it explicitly states the industry structure — 81% of all software companies have fewer than 10 employees (2023 Software Industry Survey, a total of 43,932 companies by employee-size bracket) — and designs its support accordinglyA1·D1.

4. Foundation — Policy Framework, Pilot Certification, and Global Cooperation

In the foundation-building strategy, the Ministry of Science and ICT and the National Intelligence Service will jointly chair a (tentatively named) government-wide SW Supply Chain Security Council, organized into five subcommittees: medical devices, automobiles, public information systems, finance, and securityA1. Pilot certification sits at the center of legal and institutional reform. The government states that it will verify software supply chain security management and issue certificates recognizing high-performing companies (tentatively named SSS Verified, Software Supply-Chain Security Verified), pursue Mutual Recognition Agreements (MRA) with countries that have institutionalized similar systems, and formally institutionalize the framework by incorporating supply chain security testing and evaluation elements into the Information Security Management System certification (ISMS), the Cloud Security Assurance Program (CSAP), and IoT security certificationA1. It is notable that the government chose to build on existing systems rather than create a separate new certification.

The changes on the public procurement side are also clear. SBOM submission and vulnerability response procedures, along with a supply chain cybersecurity risk management procedure document, have been added as tasks for informatization projects, and security conformity assessment will widen its scope in consideration of the National Network Security Framework (N2SF) while combining it with confirmation of SBOM submissionA1·D3. N2SF is a multi-tier security approach that applies differentiated security levels according to the importance of the work and data involved; its formal Security Guideline 1.0 was published on September 30, 2025, and reflected in the 2026 cybersecurity assessmentD3·D-news-boan.

The global cooperation task connects to two multilateral bodies. The Global Cybersecurity Labelling Initiative (GCLI), a coalition that discusses mutual recognition of IoT security certification labels and the establishment of a single standard, launched with 11 founding members at Singapore International Cyber Week on October 23, 2025, with Korea’s Ministry of Science and ICT and KISA participating as founding membersA10. Alongside this, the roadmap presents cooperation with the Global Government Expert Forum (GGEF), the U.S. Cybersecurity and Infrastructure Security Agency (CISA), the European Commission’s Directorate-General for Communications Networks, Content and Technology (DG CONNECT), and the UK Department for Science, Innovation and Technology (DSIT) as channels for supporting global expansionA1.

Figure 2. The correspondence between the global regimes the roadmap references and its policy tasks(compiled for this report; see §5 for external sources).

The roadmap separates its response to emerging technologies into a distinct research task. It places research on a supply chain security model that responds to the everyday normalization of emerging technologies such as AI as a task for 2027 and beyondA1, and the data layer of an SBOM for AI (training data, model weights, and the like) falls outside the direct scope of this roadmap, which centers on the general software supply chain.

5. The Background Shaped by Global Regulation

Behind the roadmap’s choice of SBOM, pilot certification, and mutual recognition as its core instruments lies the overseas regulation exporting companies face. A company interview the roadmap quotes shows this plainly. A digital medical device manufacturer struggled to respond to SBOM requirements during the FDA approval process; a security company that had entered the U.S. market was notified, while supplying software to the federal government, that failing to meet SBOM management requirements would make it ineligible for next year’s contract; and an AI solution developer lost a contract during preparations to supply a global financial company because it failed to meet cybersecurity requirementsA1.

Figure 3. The overseas regulation behind the roadmap and the deadlines ahead(compiled for this report; see §7 for sources).

Most of these regulations were finalized between 2021 and 2024. The EU Cyber Resilience Act (Regulation (EU) 2024/2847) is a regulation that imposes horizontal cybersecurity requirements on products with digital elements, and it entered into force on December 10, 2024B1·B2. The Article 14 reporting obligation applies from September 11, 2026, and the essential obligations as a whole, including conformity assessment and CE marking, apply from December 11, 2027B2. Manufacturers bear the obligation to produce an SBOM for products with digital elements, to handle vulnerabilities across the full lifecycle, and to issue an early warning within 24 hours and notify within 72 hours of becoming aware of an actively exploited vulnerability or a severe incidentB1. Penalties for violation run up to €15 million or 2.5% of worldwide annual turnover, whichever is higherB1. The roadmap’s recurring “scheduled for ‘27.12 implementation” refers to this date of full applicationA1.

U.S. supply chain regulation began with Executive Order 14028 (Improving the Nation’s Cybersecurity), signed on May 12, 2021, which led to institutionalizing SBOM as a federal procurement requirement and directed NIST to draw up the SSDFB3·B5. CISA finalized the Secure Software Development Attestation Common Form on March 11, 2024B4. Medical device regulation began when Section 3305 of the 2022 Consolidated Appropriations Act added a new Section 524B to the Federal Food, Drug, and Cosmetic Act (FD&C Act); the amended provision took effect on March 29, 2023B7. Manufacturers filing a premarket submission must submit a postmarket vulnerability management plan, secure-by-design documentation, and an SBOM covering commercial, open source, and off-the-shelf componentsB7. In the consumer IoT space, the U.S. Federal Communications Commission (FCC) adopted a voluntary labeling program (the U.S. Cyber Trust Mark) on March 14, 2024B8, and the UK brought the Product Security and Telecommunications Infrastructure Act 2022 (PSTI) into force on April 29, 2024B9. These are the “U.S. Cyber Trust Mark” and “UK PSTI (effective ‘24.4)” the roadmap cites in its post-market management taskA1.

6. Implications and Considerations

6.1 Exporting Companies — SBOM Is Already a Market Entry Condition

With the FDA’s medical device approval process and the EU CRA having effectively made SBOM management a condition of market entry, the government’s inspection support and its push for mutual recognition offer direct value to exporting companiesA1·B1·B7. Because the EU CRA’s reporting obligation begins September 11, 2026, and full application begins December 11, 2027B2, exporting companies are safer preparing their SBOM generation and vulnerability reporting systems ahead of time on the CRA’s own schedule, rather than waiting for Korea’s MRA to be concluded. An MRA requires the counterpart country to recognize Korean certification as equivalent, and the roadmap itself only describes the MRA as being “pursued,” without offering a timeline for agreementA1.

6.2 Public-Sector Software Vendors — SBOM Submission Becomes a Standing Requirement

In the public sector, SBOM submission and vulnerability response procedures for informatization projects have been explicitly set as tasks, and confirmation of SBOM submission is combined with security conformity assessment and the transition to N2SFA1·D3. Companies supplying software to the public sector need to prepare by integrating SBOM generation into their build pipeline. Since the policy is to derive public-sector SBOM items at a minimum so they do not become dual regulationA1, it is practically useful to check the follow-on guidelines for how alignment with overseas requirements is actually designed.

6.3 Small and Medium-Sized Software Companies — Whether Support Is Sufficient Is the Question

In an industry structure where 81% of all software companies have fewer than 10 employeesA1·D1, it is difficult for these companies to bear on their own the tools and personnel needed for SBOM generation and vulnerability management. The roadmap places consulting and the distribution of cloud-based development environments and security solutions as its support measures, but no figures are given for whether the scale of distribution and the budget will actually cover the majority of the roughly 40,000 companies involvedA1. Whether the support is sufficient is an area that future budget allocation will decide.

6.4 Remaining Risks

There is a risk from dependence on external infrastructure. The contract between MITRE, which operates the U.S. Common Vulnerabilities and Exposures (CVE) program, and CISA came within a day of expiring on April 16, 2025, before an 11-month extension patched things over, and the CVE Board confirmed on January 21, 2026 that “there will be no March funding cliff”E6·F-news-cso. The immediate crisis was averted, but the structural instability of a global vulnerability identification system that depends on the U.S. government’s budget remains unchanged, which makes the roadmap’s inclusion of finding an alternative program as a task a reasonable precautionA1.

The readiness of the development field is another variable. According to Black Duck’s survey of the state of DevSecOps, conducted among 1,001 professionals worldwide in July and August 2025, 45.56% still handle putting new code through security testing manuallyH1. Speed has become the standard while security automation has not kept pace, and this gap overlaps with the problem the roadmap identifies in its plan to shift from human-centered manual response to an AI-centered autonomous systemA1. If SBOM generation and vulnerability inspection are not integrated into an automated pipeline, mandating them risks becoming, on the ground, an added burden of manual work.

As a side note, the estimate of global damage from supply chain attacks that the roadmap attributes to “Gartner (‘24.6)” — $46 billion in 2023, projected to reach $138 billion by 2031 — is actually a Cybersecurity Ventures estimateE4.

7. References

This section lists the items cited in the text as[A1] and similar. All URLs were accessed on 2026-06-24. Government and institutional sites sometimes return a bot block to automated crawling tools; these are not dead links, and such items were cross-checked using existing verification assets or WebSearch.

Subject of Analysis and Domestic Prior Documents

A1. Ministry of Science and ICT, National Intelligence Service, and Korea Internet & Security Agency, joint (2026).Software Supply Chain Security Roadmap for the Age of Everyday AI. Published by the Korea Internet & Security Agency (Naju), 1st edition, 1st printing, 2026-06-24. 30 pages, CC BY-NC-ND 2.0 KR. Released on the day of the announcement (2026-06-24, Supply Chain Security Workshop, aT Center, Yangjae); a fixed direct PDF link was not yet available, but it can be found via the Ministry of Science and ICT press release (https://www.msit.go.kr/bbs/list.do?sCode=user&mId=307&mPid=208) and the KISA resource library. —Use: the publicly released government roadmap that is the subject of this article’s citation and commentary. Cited with attribution; the original’s tables and diagrams are not reproduced.↩

A2. Ministry of Science and ICT, National Intelligence Service, and Presidential Committee on Digital Platform Government (2024).SW Supply Chain Security Guideline 1.0 (summary, 2024-05-13). Published in the KISA resource library.https://www.kisa.or.kr/2060204/form?postSeq=15 (accessed 2026-06-24; publishing entity and SSDF, SBOM, and stage-by-stage inspection content cross-checked via WebSearch). —Use: the direct predecessor document the roadmap states it will upgrade to 2.0.↩

A10. Cyber Security Agency of Singapore et al. (2025).Joint Statement on the Global Cybersecurity Labelling Initiative (GCLI). Launched 2025-10-23.https://www.csa.gov.sg/news-events/press-releases/joint-statement-on-the-global-cybersecurity-labelling-initiative/ (accessed 2026-06-24; launch date, 11 founding members, and Korea’s participation cross-checked via WebSearch). —Use: confirms the GCLI’s launch, composition, and Korea’s participation.↩

Primary Texts of Global Laws and Regulations

B1. European Parliament and Council (2024).Regulation (EU) 2024/2847 — Cyber Resilience Act. Official Journal of the EU, OJ L, 2024/2847, 20.11.2024.https://eur-lex.europa.eu/eli/reg/2024/2847/oj/eng (accessed 2026-06-24; reconfirmed against theeu-cra-vulnerability-reporting workspace verification asset). —Use: primary basis for the CRA’s SBOM and vulnerability obligations, reporting deadlines (24h/72h), penalties, and effective dates.↩

B2. European Commission, DG CNECT (2026).Cyber Resilience Act — Shaping Europe’s digital future.https://digital-strategy.ec.europa.eu/en/policies/cyber-resilience-act (accessed 2026-06-24). —Use: primary confirmation of the implementation schedule (entry into force 2024-12-10, reporting obligation 2026-09-11, full application 2027-12-11).↩

B3. The White House (2021).Executive Order 14028 — Improving the Nation’s Cybersecurity. Federal Register, 86 FR 26633, 2021-05-17.https://www.federalregister.gov/documents/2021/05/17/2021-10460/improving-the-nations-cybersecurity (accessed 2026-06-24, 200 OK). —Use: primary basis for making SBOM a federal procurement requirement and directing NIST to draw up the SSDF.↩

B4. CISA (2024).Secure Software Development Attestation Common Form (Final). Released 2024-03-11.https://www.cisa.gov/secure-software-attestation-form (accessed 2026-06-24; cisa.gov returned a bot block, release date cross-checked via WebSearch). —Use: the U.S. federal procurement SSDF self-attestation obligation. The roadmap’s “‘23.6~” notation refers to when the policy was discussed; the form itself was released in 2024-03.↩

B5. NIST — Souppaya, M., Scarfone, K., Dodson, D. (2022).Secure Software Development Framework (SSDF) Version 1.1. NIST SP 800-218. DOI: 10.6028/NIST.SP.800-218.https://csrc.nist.gov/pubs/sp/800/218/final (accessed 2026-06-24). —Use: the framework the roadmap’s “secure SW development methodology” directly references.↩

B7. U.S. Food and Drug Administration / Federal Register (2023).Cybersecurity in Medical Devices: Quality System Considerations and Content of Premarket Submissions (FD&C Act §524B, added by §3305 of the 2022 Consolidated Appropriations Act, effective 2023-03-29).https://www.federalregister.gov/documents/2023/09/27/2023-20955/cybersecurity-in-medical-devices-quality-system-considerations-and-content-of-premarket-submissions (accessed 2026-06-24, 200 OK). —Use: primary basis for the FDA’s medical device SBOM requirement.↩

B8. Federal Communications Commission (2024).Cybersecurity Labeling for Internet of Things — Report and Order (FCC 24-26) (U.S. Cyber Trust Mark). Adopted 2024-03-14.https://www.federalregister.gov/documents/2024/03/25/2024-06249/cybersecurity-labeling-for-internet-of-things (accessed 2026-06-24, 200 OK). Program hub:https://www.fcc.gov/CyberTrustMark. —Use: primary basis for the U.S. voluntary IoT labeling program.↩

B9. UK Government / DSIT (2022/2024).Product Security and Telecommunications Infrastructure (PSTI) Act 2022, Part 1 (effective 2024-04-29).https://www.gov.uk/government/publications/the-uk-product-security-and-telecommunications-infrastructure-product-security-regime (accessed 2026-06-24; effective date and penalty cap cross-checked via WebSearch). —Use: primary basis for the UK’s mandatory PSTI regulation.↩

Standards and Guidance

C1. U.S. Department of Commerce / NTIA (2021).The Minimum Elements For a Software Bill of Materials (SBOM). 2021-07-12.https://www.ntia.gov/files/ntia/publications/sbom_minimum_elements_report.pdf (accessed 2026-06-24; ntia.gov blocked the crawler, reconfirmed against thesbom-guide andg7-sbom-for-ai workspace verification assets). —Use: the baseline for the roadmap’s “deriving minimum SBOM items.”↩

C4. The Linux Foundation / SPDX Project.SPDX Specifications (current version SPDX 3.0, standardized as ISO/IEC 5962:2021).https://spdx.dev/use/specifications/ (accessed 2026-06-24, 200 OK, verified againstsbom-guide). —Use: an SBOM standard format. Basis for global compatibility.↩

C5. OWASP Foundation / Ecma International (2025).CycloneDX Specification / ECMA-424 (published 2025-12-10).https://cyclonedx.org/specification/overview/ (accessed 2026-06-24, 200 OK, verified againstsbom-guide). —Use: an SBOM standard format.↩

Domestic Institutions and Statistics

D1. Ministry of Science and ICT and the Korea Association for ICT Promotion (KAIT) (2024).2023 Software Industry Survey (a nationally approved statistic). Statistics portal SWSTAT:https://stat.spri.kr/ (accessed 2026-06-24; publishing body and the nature of the statistic confirmed via WebSearch). —Use: basis for the publishing framework behind the roadmap’s statistic that “81% of software companies have fewer than 10 employees (43,932 companies in total).” The 81% figure and the 43,932 count are attributed to the roadmap’s citation, as direct comparison against the survey’s original tables was not completed.↩

D2. Korea Internet & Security Agency (KISA) / KrCERT (2012–).Security Vulnerability Reward Program (Bug Bounty).https://www.krcert.or.kr/kr/bbs/list.do?menuNo=205027 (accessed 2026-06-24; October 2012 program start and quarterly evaluation cross-checked via WebSearch). —Use: basis for the existing program the roadmap’s detection-and-response task expands.↩

D3. National Intelligence Service · National Cyber Security Center (2025).National Network Security Framework (N2SF) Security Guideline, formal edition 1.0 (published 2025-09-30).https://www.nis.go.kr/CM/1_4/view.do?seq=373 (accessed 2026-06-24; publication date and tiered security-level system cross-checked via WebSearch). —Use: basis for the roadmap’s expansion of the scope of security conformity assessment (N2SF).↩

D6. Presidential Committee on Digital Platform Government (2024).Government Announces ‘SW Supply Chain Security Guideline 1.0’ (press release, 2024-05-13).https://www.dpg.go.kr/DPG/contents/DPG02020000.do?schM=view&id=20240513105420991857&schBcid=press (accessed 2026-06-24; the announcement date of 2024-05-13 and the text’s plan for “preparing a roadmap through a government-wide joint task force in the second half of the year” cross-checked via WebSearch). —Use: primary announcement of the background to Guideline 1.0’s release and the “plan to prepare a roadmap through a second-half joint task force.”↩

Original Sources of Statistics Cited by the Roadmap

E4. Cybersecurity Ventures (2024).Software Supply Chain Attacks To Cost The World $60 Billion By 2025.https://cybersecurityventures.com/software-supply-chain-attacks-to-cost-the-world-60-billion-by-2025/ (accessed 2026-06-24; the $46 billion figure for 2023 and $138 billion for 2031 confirmed via WebSearch). —Use: the actual original source of the roadmap’s supply chain damage statistic. The roadmap’s attribution to “Gartner (‘24.6)” is inaccurate and is corrected here to Cybersecurity Ventures.↩

E6. MITRE / CISA (2025). Background on the CVE program’s contract expiration and extension. Cybersecurity Dive (2025-04):https://www.cybersecuritydive.com/news/cisa-extend-funding-cve/745531/ (accessed 2026-06-24; the $57.8 million contract, 2025-04-16 expiration, 11-month extension, and the founding of the CVE Foundation confirmed via WebSearch). Program site:https://www.cve.org/. —Use: background for the roadmap’s task of finding an alternative to the CVE program. Supplementary press source.↩

News and Industry Coverage

B-news-etnews. ETNews (2025-12-24).Ministry of Science and ICT and National Intelligence Service Join Hands on SW Supply Chain Security… Build Government-Wide Cooperation Framework.https://www.etnews.com/20251224000334 (accessed 2026-06-24). —Use: confirms the timing of the government-wide cooperation agreement (2025-12-24).↩

B-news-zdnet. ZDNet Korea (2026-06-16).Government to Release SW Supply Chain Security Roadmap on the 24th.https://zdnet.co.kr/view/?no=20260616111556 (accessed 2026-06-24). —Use: primary confirmation of the announcement date (2026-06-24), the responsible bodies (Ministry of Science and ICT, National Intelligence Service), the location (aT Center, Yangjae), and the 2027 institutionalization target.↩

D-news-boan. Boannews (2026).From NIS Security Conformity Assessment to N2SF… What’s Changed in the Paradigm?.https://m.boannews.com/html/detail.html?tab_type=1&idx=140209 (accessed 2026-06-24). —Use: coverage of the transition from security conformity assessment to N2SF and its incorporation into the 2026 cybersecurity assessment.↩

F-news-cso. CSO Online (2026).CVE program funding secured, easing fears of repeat crisis.https://www.csoonline.com/article/4142600/cve-program-funding-secured-easing-fears-of-repeat-crisis.html (accessed 2026-06-24). —Use: confirms the CVE Board’s January 21, 2026 statement of “no March funding cliff.”↩

Development-Field Trends

H1. Black Duck (2025).Balancing AI Usage and Risk in 2025: The Global State of DevSecOps (October 2025). The survey was conducted by Censuswide among 1,001 professionals worldwide in July–August 2025. —Use: the security automation gap in the development field (45.56% still handled manually).↩

Summary “Software Bill of Materials for AI — Minimum Elements,” published by the G7 Cybersecurity Working Group on May 12, 2026, is the first G7 joint guidance to reach agreement, at the level of 7 clusters and 50 elements, on what an SBOM applied to AI systems must contain. Germany’s BSI and Italy’s ACN co-led the effort, and it was published together with France’s ANSSI, Canada’s CSE, the United States’ CISA, the United Kingdom’s NCSC, and Japan’s NCO, alongside the European Commission. The document is a recommendation rather than an obligation and creates no new requirement, standard, or law, but by elevating AI models, datasets, and infrastructure to first-class tracked objects on top of the general SBOM, it becomes a reference point for national regulation and public procurement. For Korean companies and suppliers that adopt, develop, and deploy AI, it is worth reviewing in advance as a structural baseline for documents that respond to the EU Artificial Intelligence Act and the Cyber Resilience Act.

1. Overview

This document is the first G7 consensus document to define the minimum elements of an SBOM for AI at the item level. The issuing body is the G7 Cybersecurity Working Group, and the actual co-publishing agencies are seven: Germany’s Federal Office for Information Security (BSI), Italy’s National Cybersecurity Agency (ACN), France’s National Cybersecurity Agency (ANSSI), Canada’s Communications Security Establishment (CSE), the United States’ Cybersecurity and Infrastructure Security Agency (CISA), the United Kingdom’s National Cyber Security Centre (NCSC), and Japan’s National Cybersecurity Office (NCO). The European Commission joined as a collaborating bodyC1·C2. The publication date is May 12, 2026, and the United States’ CISA jointly announced the same document classified at the TLP:CLEAR information-sharing level (free to redistribute)C1·C2.

The work was co-led by Italy’s ACN and Germany’s BSI with the support of the G7 presidencies of Canada (2025) and France (2026), and the drafting period the text states runs from August 2025 to February 2026C1. The official published version can be downloaded from the BSI download page and the CISA resource libraryC1·C2.

The document’s status is clearly a recommendation. The text states explicitly that these minimum elements are not mandatory and create no new requirement, standard, or law, and describes the list of proposals as a non-exhaustive baseline that does not cover everythingC1. Although not binding, it carries weight for national regulation and public procurement requirements to reference, given that it was agreed by the cybersecurity authorities of all seven G7 countries together with the European Commission. Its scope of application is every developer and deployer that builds or deploys AI systems, and the document itself acknowledges that additional clusters or elements may be needed depending on industry, sector, and jurisdictionC1.

One point of terminology first. SBOM for AI, the term this document uses, is one of several names for the same object. The OpenChain project specifies AI SBOM as the abbreviation in its definitions clause, while CycloneDX uses Machine Learning Bill of Materials (ML-BOM), also written AI/ML-BOM depending on the documentB16. The industry also widely uses the general term AI BOM. The discussion below follows the original document’s usage, SBOM for AI, when referring to this document, and uses AI BOM only when referring to the general concept independent of any specific standard.

2. Core Content: The Seven Clusters and Elements

Because AI systems are also software systems, SBOM remains valid for AI, and the minimum elements of an SBOM for AI do not replace the general SBOM minimum elements but are added on top of themC1. What the document newly defines is a cluster system that divides the structured record into seven groups. Each cluster contains “elements” that capture the distinctive characteristics of AI system components. The metadata cluster concerns information about the SBOM itself, so it is presented first, and the remaining six clusters follow with equal weightC1.

Table 1. The seven clusters of an SBOM for AI. Metadata is the layer that describes the SBOM document itself, and the remaining six clusters are equally weighted information domains that make up the AI system. The 50 elements are divided across the 7 clusters.(G7 Software Bill of Materials for AI — Minimum Elements (2026-05-12); collected 2026-06-22)

2.1 Metadata: The Record of the SBOM Itself

The metadata cluster describes not individual components but the SBOM for AI itselfC1. It comprises 10 elements: author (SBOM author), version, data format name and version, author signature, tool name and version, generation context, timestamp, and dependency relationships. The author element refers to the entity that generated the SBOM, distinct from the Producer that made the component. The version element may use Semantic Versioning, in which case the major version of the published SBOM must be 1C1·B14. The author signature is recommended to use an algorithm approved by a relevant body, such as the NIST Digital Signature Standard (DSS), ISO/IEC 14888-4:2024, or an ENISA-agreed cryptographic mechanismB1·B3. The timestamp follows RFC 9557, and the identifier serial number follows RFC 9562B5·B4.

Two elements, generation context (SBOM generation context) and dependency relationship (SBOM dependency relationship), deserve particular attention in practice. Generation context marks the software lifecycle stage at which the SBOM was created, using references such as “before build,” “build,” and “after build.” An SBOM produced from source code falls under before build, and one produced by a binary analysis tool falls under after build. Dependency relationship goes beyond simple inclusion (“includes”/“included in”) to express that a given component is mostly derived from, or is a descendant of, other software, allowing backported or forked software to be recorded explicitlyC1.

2.2 System Level Properties (SLP): Where the Data Flows

The System Level Properties (SLP) cluster addresses the AI system as a whole. It captures, in 9 elements, the internal operation of a system composed of multiple elements such as classifiers, large language models (LLM), and AI agents; its software dependencies and frameworks; and how the system processes and interacts with user dataC1. Alongside basic identifying information such as system name and components, producer, version, and timestamp, it includes data flow, data usage, input/output properties, and intended application domain.

The most distinctive element is System data flow. It names, as examples, input/output endpoints, a description of the data information flow from source to destination, external service APIs, plus multi-agent communication protocols and web grounding, the bidirectional data flow toward external servicesC1. Drawing inter-agent communication and external web access into the data flow item signals that the tracking unit is not a single model but a composite system that interacts with the outside world. System data usage requires information such as whether the data is used to improve model performance and whether API calls log the data, captured via a link to technical documentation.

2.3 Models: How the Weights Were Made

The Models cluster, with the largest count at 13 elements, identifies the models an AI system uses and describes how their weights were generatedC1. It captures identifying information such as name, identifier, version, timestamp, and producer; integrity expressed as a hash value and hash algorithm; and the model’s character through model properties, input/output properties, training properties, license, and external references. Model identifier designates Common Platform Enumeration (CPE) or Package-URL (PURL) as the preferred identifier, while also permitting intrinsic identifiers such as UUID, commit hash, OmniBOR, and SWHIDB6·B7·B9·B10. The hash algorithm is identified by its IANA hash function textual name and is required to use a NIST-approved algorithmB12·B13.

Model training properties spans pretraining and post-training, fine-tuning, and continual learning, describing via a link to the model card everything from unsupervised/supervised/self-supervised learning types to reinforcement learning optimization types such as reinforcement learning from human feedback, instruction tuning, and Direct Preference OptimizationC1.

The Model license element is a distinctive contribution of the G7 document. Rather than merely naming the type of open source license, it requires stating separately which of open weight, open architecture, open data, and open training the model qualifies asC1.

Figure 1. The four axes that model license requires to be disclosed separately(based on Section 2.3 of the G7 “Software Bill of Materials for AI — Minimum Elements”).

Breaking openness, previously lumped together under the single word “open model,” into four axes serves to distinguish, at the SBOM level, the common case where only the weights are open while the training data or procedure remain closed. Disclosing weights and disclosing training data carry entirely different implications for licensing, reproducibility, and legal liability.

2.4 Datasets Properties (DP): Provenance and Sensitivity

The Datasets Properties (DP) cluster documents, in 10 elements, the identity and provenance of the datasets used across the model lifecycleC1. Basic information such as name, description, content, identifier, and hash is joined by provenance, statistical properties, sensitivity, dependency relationships, and license. Dataset provenance captures who contributed the data, the collection method — whether web crawling or commercial agreement — post-processing and pre-processing, labeling steps, and, for synthetic data, even its generation method. Dataset sensitivity indicates which of personally identifiable information (PII), freely accessible data, copyrighted data, sensitive data such as financial or medical data, and national-security-related data the dataset includes. This is a design aimed at tracking the legal and ethical risk of training data as an SBOM item.

2.5 Infrastructure: The Link to HBOM

The Infrastructure cluster captures, in two elements, the physical and virtual infrastructure essential to operating an AI systemC1. Infrastructure software lists dependencies such as firmware, package managers, third-party libraries, frameworks, and runtime environments. Infrastructure hardware, rather than directly describing specialized AI hardware, connects a dependency link to an existing Hardware Bill of Materials (HBOM). The structure whereby the software SBOM does not directly absorb hardware specifications but instead pulls in the HBOM by reference is a compromise that delegates the tracking of AI-accelerating hardware such as GPUs to a separate standard while still leaving a connecting link.

2.6 Security Properties (SP) and Key Performance Indicators (KPI)

The Security Properties (SP) cluster addresses, in 4 elements, the cybersecurity measures applied to the AI model and systemC1. Security controls lists, distinguishing between them, general controls such as encryption, data minimization, differential privacy, and access control, and AI-specific controls such as adversarial robustness training, prompt injection controls, and training data curation. Security compliance covers certifications and standards obtained, cybersecurity policy information links to a security.txt file, and Vulnerability referencing carries a link to a database of the exploitability of known vulnerabilities.

The Key Performance Indicators (KPI) cluster is a grouping unique to G7 that has no counterpart in the general SBOM. Security metrics covers security benchmarks such as resilience against third-party manipulation, and Operational performance KPIs covers system uptime, incident resolution time, latency, request throughput, and load balancingC1. This is an attempt to capture, in the SBOM, not just a static list of configuration but also operational status and threat indicators, and, as seen later in Section 4, it is also the area that draws the most criticism for measurement consistency.

3. Background and Context

This document exists now because two separate lineages converged at a single point. One is the general SBOM minimum elements institutionalized in the United States, and the other is the vision for an SBOM for AI that the G7 sketched out in 2025.

Figure 2. The standardization progression from general SBOM to AI SBOM(compiled for this report).

The reference point for the general SBOM minimum elements is “The Minimum Elements for a Software Bill of Materials,” published in July 2021 by the U.S. Department of Commerce’s National Telecommunications and Information Administration (NTIA) under the direction of Executive Order 14028. That document presented seven data fields — supplier name, component name, version, unique identifier, dependency relationship, SBOM author, and timestamp — and stewardship of the SBOM community’s ongoing work was subsequently transferred to CISAC7. Evidence that the G7 document directly continues this lineage shows up in how the metadata cluster is defined. Author, version, data format, timestamp, and dependency relationship carry the NTIA data fields almost unchanged into the AI context, and the fact that the Model identifier designates CPE and PURL as preferred identifiers while citing CISA’s “Software Identification Ecosystem Option Analysis” (2023) shows the same rootsC6·C7.

The direct starting point is the 2025 vision document. “A shared G7 vision on Software Bill of Materials for AI” was published by BSI and ACN in June 2025 and endorsed at the Ottawa G7 meeting; it defined the concept, goals, benefits, and properties of an SBOM for AI and went no further than presenting the seven clusters as high-level examplesC3. At the same time, experts recommended that each cluster be defined in detail, and the 2026 minimum elements document is that follow-up. If the vision was the outline of “what must be captured,” this document is the detail of “which elements, defined how, go into each cluster”C1·C3.

The difference lies in drawing AI-specific components in as first-class tracked objects. Where the general SBOM targets identification of software components, the G7 document adds five groupings: models, datasets, infrastructure, security properties, and key performance indicators. The reason for this expansion is that code alone cannot express the training process, the data, and model behavior. Breaking model license into four axes and having dataset provenance capture even the collection method and, for synthetic data, the generation method are items that did not exist in the general SBOM.

On implementation, the document is format-neutral. Placing the data format name and version elements in the metadata cluster is evidence of this, and actual implementation is carried by two existing BOM standards. SPDX (System Package Data Exchange), a Linux Foundation project, introduced AI and dataset profiles starting with 3.0 (April 2024), defining model type and architecture, hyperparameters, autonomy type, and whether sensitive information is used, among othersB15. CycloneDX (OWASP) has supported the Machine Learning Bill of Materials (ML-BOM) since 1.5, capturing training approach, architecture, performance, and ethical considerations through a modelCard objectB16. The G7 document’s note, in the model license example, that one “can point to the corresponding field in the SPDX/CDX file,” shows that it presupposes these two formats as the implementation mediumC1.

4. Recent Developments and Verification Challenges

Looking at the reaction in the roughly one month following publication, broad agreement gathered around the direction of the seven clusters, but a gap emerged over measurability and verifiability. The announcement took the form of simultaneous publication by BSI, CISA, ANSSI, ACN, CSE, NCSC, and NCO together with the European Commission, and ANSSI, in an English-language post on May 13, 2026, introduced the document as “concrete guidance on what can reasonably be expected of an SBOM for AI” while noting the possibility of future adjustmentA4. Trade press coverage concentrated on May 13–14, and the law firm Morgan Lewis, in a June analysis, emphasized that the guidance is voluntary and non-bindingE1.

Questions about measurability were the common focus of commentary. Allan Friedman, CISA’s former SBOM lead, affirmed much of the seven clusters while noting that many “are difficult to even measure or define in a concrete, organization-consistent way”A6. Sanchit Vir Gogia of Greyhound Research summarized that “the minimum elements create visibility but not assurance,” and Nigel Douglas of Cloudsmith likewise noted, while acknowledging that the document raises the right requirements, the limitation that the seven data clusters are hard to measure consistently across organizationsA10·A8. TLCTC, a security threat classification framework, criticized the Security Properties (SP) cluster head-on the same day the document was published, pointing out that while it lists control items, it does not state which threat each control addresses, which reduces auditabilityA11.

Standard and tool implementations do not yet fully fill the G7’s seven clusters. The SPDX dataset profile’shasSensitivePersonalInformation andconfidentialityLevel map to G7’s dataset sensitivity, anddataCollectionProcess maps to dataset provenanceB15·A13. By contrast, the metadata cluster’s author signature and generation context, and the KPI cluster’s operational performance indicators (uptime, latency, throughput), have no clearly structured, dedicated field in either standard, requiring a workaround through external references or free textA13·A16. The SP cluster’s AI-specific controls similarly lack adequate structured fields.

It is particularly worth noting that the G7’s judgment on agentic AI and the movement of the standards community diverged. The document’s Discussion section explicitly addressed whether to add the decision-making level, or autonomy, of an AI system as a separate element. The working group acknowledged that the rapid advance of agentic AI could increase the importance of this element and that it could help in assessing the impact of a compromise, but decided not to specify autonomy as a separate element, on the grounds that this element might be handled differently across jurisdictions through mechanisms such as safety requirementsC1·A7. The standards community moved in the opposite direction over the same period. SPDX 3.1, unveiled at FOSDEM in February 2026, added AI agents and retrieval-augmented generation (RAG) as first-class concepts, with the data format providing vocabulary ahead of the area where policy consensus had held backA14. How the G7’s future refinement work absorbs this standard vocabulary is worth watching.

Regulatory alignment remains an open question. On the publication date, the primary source, the BSI publication page, states May 12, and the May 13 date given by some outlets appears to stem from differences in time zone and posting timeA3·A4. Mapping the fields between the voluntary G7 recommendation and the soon-to-be-binding EU obligations is the next task for corporate practice.

5. Implications for Korean Readers

The first thing to confirm is not a reporting obligation but a signal of documentation-structure standardization. The G7 minimum elements themselves impose no direct legal obligation in any countryC1. However, the EU Artificial Intelligence Act requires the technical documentation of Article 11 and Annex IV for high-risk AI systems, and that obligation applies from August 2, 2026 for the high-risk systems of Annex IIIA1. The components, data, and performance documentation Annex IV requires overlap substantially with the G7’s System Level Properties, Models, and Datasets clusters. For a Korean company supplying AI products to the EU, it is practical to use the G7 clusters as a checklist of technical documentation items and fill in the gaps in advance.

The Cyber Resilience Act (CRA) directly mandates an SBOM. Annex I, Part II(1) requires that the components of a product with digital elements be documented in an SBOM in a machine-readable format, with the vulnerability and incident reporting obligation (Article 14) applying from September 11, 2026, and the remaining core requirements applying from December 11, 2027A2. The G7 document’s choice to build a structure that stacks AI elements on top of the general SBOM meshes naturally with the SBOM obligation foundation the CRA has already laid. A company launching AI-equipped products in the EU would do well to prepare a two-layer structure: the general SBOM (CRA obligation) plus the G7 AI elements on top.

On preparation, the highest-priority items are datasets and model license. Dataset provenance and sensitivity (PII, copyright, national security) bear directly on the legal risk of training data, so an organization that draws on external models and data all the more needs a procedure for requiring this information from its suppliers. The four-axis breakdown of model license (weights, architecture, data, training procedure) becomes the criterion that distinguishes, when adopting an “open model,” what is actually disclosed and what constraints apply to redistribution, fine-tuning, and commercial use. Because the data flow element of System Level Properties covers even inter-agent communication and web grounding, for systems that use external APIs and multiple agents, specifying where data goes becomes both a regulatory response and a security check.

Risk and opportunity sit in the same place. The criticism that the minimum elements do not guarantee measurement and verification is a warning that simply filling in the items does not by itself ensure agreement with the actual systemA8·A10. The G7 document itself emphasizes that an SBOM not connected to vulnerability scanning and management tools and to security advisories remains no more than a paper documentC1. Conversely, adopting this cluster framework early for asset inventory and supply chain checks can lower conversion costs once EU and U.S. regulation becomes more concrete, and can turn supply chain transparency into a differentiator.

6. Relationship to Other Reports in This Workspace

This report addresses a different layer than this workspace’s general AI BOM report and its OpenChain report. The AI BOM report (reports/ai-bom) is the overview and regulatory-mapping layer, broadly covering the history of SBOM, AI BOM in general, and mapping to EU regulation. The OpenChain AI SBOM report (reports/openchain-ai-sbom) covers the process and compliance layer — the compliance process that extends ISO 5230 to AI, that is, how an organization generates and manages an SBOM. The distinctive value of this G7 report is the data-definition layer that sits between them: the item-level specification of exactly which elements, defined how, an SBOM must contain. The three reports complement one another as the general account (why and what), the process (how to manage), and the element definitions (exactly what to record). If you are actually designing an AI BOM adoption, the natural combination is to set the context with the general account, build the operating process with OpenChain, and fill in the recorded items with the G7 clusters.

7. References

Only sources cited in the body are listed. All URLs were accessed and verified on 2026-06-22.

Legislation and Regulation (Primary)

A1. European Parliament and Council (2024).Regulation (EU) 2024/1689 (Artificial Intelligence Act). OJ L, 2024/1689, 12.7.2024.https://eur-lex.europa.eu/eli/reg/2024/1689/oj/eng (accessed 2026-06-22; ELI permanent link. The August 2, 2026 application date for high-risk systems was cross-checked against the European Commission’s policy page). —Use: obligation for high-risk AI technical documentation and correspondence with the G7 clusters.↩

A2. European Parliament and Council (2024).Regulation (EU) 2024/2847 (Cyber Resilience Act, CRA). OJ L, 2024/2847, 20.11.2024.https://eur-lex.europa.eu/eli/reg/2024/2847/oj/eng (accessed 2026-06-22; ELI permanent link). Supplemented for the Annex I Part II(1) and Article 14 (2026-09-11) / Annex I (2027-12-11) application schedule by Anchore’s explainer on CRA SBOM requirements:https://anchore.com/sbom/eu-cra/ (accessed 2026-06-22). —Use: legal basis and application schedule for the SBOM-creation obligation.

Standards and Specifications (Primary)↩

B1. National Institute of Standards and Technology (2023).FIPS 186-5: Digital Signature Standard (DSS). February 2023.https://nvlpubs.nist.gov/nistpubs/FIPS/NIST.FIPS.186-5.pdf (accessed 2026-06-22). —Use: basis for the approved algorithms for the author signature element (original document footnote 4).↩

B3. ISO/IEC (2024).ISO/IEC 14888-4:2024, Information security — Digital signatures with appendix — Part 4: Stateful hash-based mechanisms.https://www.iso.org/standard/80492.html (accessed 2026-06-22; the ISO page returns 403 to automated tools, so the standard number and title were confirmed from ISO search results). —Use: basis for the approved signature mechanisms for the author signature element.↩

B4. Internet Engineering Task Force (2024). Davis, K., Peabody, B., Leach, P.RFC 9562: Universally Unique IDentifiers (UUIDs). May 2024.https://www.rfc-editor.org/rfc/rfc9562.html (accessed 2026-06-22). —Use: identifier serial-number standard for SBOM version (original document footnote 3).↩

B5. Internet Engineering Task Force (2024). Sharma, U., Bormann, C.RFC 9557: Date and Time on the Internet: Timestamps with Additional Information. April 2024.https://www.rfc-editor.org/rfc/rfc9557.html (accessed 2026-06-22). —Use: format for SBOM timestamp (original document footnote 6).↩

B6. NIST, National Vulnerability Database.Official Common Platform Enumeration (CPE) Dictionary.https://nvd.nist.gov/products/cpe (accessed 2026-06-22). —Use: CPE as a recommended identifier for Model identifier (original document footnote 8).↩

B7. Ecma International (2025).ECMA-427: Package-URL (PURL) Specification, 1st Edition. December 2025.https://ecma-international.org/publications-and-standards/standards/ecma-427/ (accessed 2026-06-22). —Use: PURL as a recommended identifier for Model identifier (original document footnote 9).↩

B9. OmniBOR Project.OmniBOR Specification.https://omnibor.io/ (accessed 2026-06-22). —Use: OmniBOR as an example intrinsic identifier for Model identifier (original document footnote 10).↩

B10. SWHID Project.The SWHID Specification Version 1.2.https://www.swhid.org/specification/v1.2/ (accessed 2026-06-22). —Use: SWHID as an example intrinsic identifier for Model identifier (original document footnote 11).↩

B12. Internet Assigned Numbers Authority.Named Information Hash Algorithm Registry (Hash Function Textual Names).https://www.iana.org/assignments/named-information/named-information.xhtml (accessed 2026-06-22). —Use: recommendation for identifying Model hash algorithm (original document footnote 12).↩

B13. NIST, Computer Security Resource Center.Hash Functions (project).https://csrc.nist.gov/projects/hash-functions (accessed 2026-06-22). —Use: basis for NIST-approved algorithms for Model hash algorithm (original document footnote 13).↩

B14. Preston-Werner, T. and the SemVer Team (2013).Semantic Versioning 2.0.0.https://semver.org/ (accessed 2026-06-22). —Use: Semantic Versioning for SBOM version (original document footnote 2).↩

B15. SPDX Project.SPDX 3.0.1 Specification — AI Profile. Linux Foundation.https://spdx.github.io/spdx-spec/v3.0.1/model/AI/AI/ (accessed 2026-06-22). —Use: data-format implementation of the SBOM for AI, cluster correspondence.↩

B16. OWASP CycloneDX.Machine Learning Bill of Materials (ML-BOM / AI-BOM) capabilities.https://cyclonedx.org/capabilities/mlbom/ (accessed 2026-06-22). —Use: an alternative implementation of the SBOM for AI (ML-BOM / modelCard).

Government and Agency Guidance and Official Publication Sources (Primary)↩

C1. G7 Cybersecurity Working Group (2026).Software Bill of Materials for AI — Minimum Elements (BSI official publication). Published 2026-05-12.https://www.bsi.bund.de/SharedDocs/Downloads/EN/BSI/KI/SBOM-for-AI_minimum-elements.html (accessed 2026-06-22; direct PDF linkhttps://www.bsi.bund.de/SharedDocs/Downloads/EN/BSI/KI/SBOM-for-AI_minimum-elements.pdf). —Use: the source document. The primary basis for all cluster and element definitions.↩

C2. G7 Cybersecurity Working Group / CISA et al. (2026).Software Bill of Materials for AI — Minimum Elements (TLP:CLEAR, CISA joint publication). Published 2026-05-12.https://www.cisa.gov/resources-tools/resources/software-bill-materials-ai-minimum-elements (accessed 2026-06-22; the CISA page returns 403 to automated tools, so the fact and date of publication, the TLP:CLEAR classification, and the seven clusters were cross-checked against search results and a WaterISAC notice). —Use: confirmation of the U.S. official publication, the TLP:CLEAR distribution status, and the co-publishing agencies.↩

C3. G7 Cybersecurity Working Group (2025).A shared G7 vision on Software Bill of Materials for AI (Shared G7 Vision, 2025-06). Published by ACN.https://www.acn.gov.it/portale/documents/d/guest/paper_sbom-for-ai_19may2025_-clean-2 (accessed 2026-06-22). —Use: the preceding vision document, the first proposal of the seven clusters (original document footnote 1).↩

C6. Cybersecurity and Infrastructure Security Agency (2023).Software Identification Ecosystem Option Analysis. 2023-10-26.https://www.cisa.gov/sites/default/files/2023-10/Software-Identification-Ecosystem-Option-Analysis-508c.pdf (accessed 2026-06-22; the CISA site returns 403 to automated tools; the document’s existence and date match the original document’s footnote 7). —Use: basis for the software identification ecosystem referenced by Model identifier (original document footnote 7).↩

C7. National Telecommunications and Information Administration (2021).The Minimum Elements for a Software Bill of Materials (SBOM). 2021-07-12.https://www.ntia.gov/sites/default/files/publications/sbom_minimum_elements_report_0.pdf (accessed 2026-06-22; automated tools encounter a certificate error, alternate publication sourcehttps://www.ntia.doc.gov/report/2021/minimum-elements-software-bill-materials-sbom). —Use: the general SBOM minimum elements that the SBOM for AI builds on.

Industry and Law Firm Analysis, and Press Coverage (Secondary, Cross-Checked Against Primary Sources)↩

A3. BSI (2026).Software Bill of Materials (SBOM) for Artificial Intelligence — Minimum Elements (publication page). States a publication date of 2026-05-12.https://www.bsi.bund.de/SharedDocs/Downloads/EN/BSI/KI/SBOM-for-AI_minimum-elements.html (accessed 2026-06-22). —Use: primary confirmation of the publication date.↩

A4. ANSSI (2026).Software bill of materials (SBOM) for artificial intelligence (English-language post, 2026-05-13).https://cyber.gouv.fr/en/publications/jointly-led-international-publications/software-bill-of-materials-sbom-for-artificial-intelligence/ (accessed 2026-06-22). —Use: primary commentary from a publishing agency.↩

A6. Infosecurity Magazine (2026-05-13).Global Cyber Agencies Issue New SBOMs for AI Guidance.https://www.infosecurity-magazine.com/news/new-sboms-for-ai-guidance-2026/ (accessed 2026-06-22). —Use: citation of Friedman’s commentary.↩

A7. Industrial Cyber (2026-05-13).CISA, G7 partners release SBOM for AI guidance…https://industrialcyber.co/sbom/cisa-g7-partners-release-sbom-for-ai-guidance-to-boost-ai-supply-chain-transparency-and-cybersecurity-resilience/ (accessed 2026-06-22). —Use: coverage of the cluster and autonomy discussion.↩

A8. SecurityWeek (2026-05-14).G7 Countries Release AI SBOM Guidance.https://www.securityweek.com/g7-countries-release-ai-sbom-guidance/ (accessed 2026-06-22). —Use: commentary from Douglas (Cloudsmith).↩

A10. CIO (2026-05-13).CISA’s AI SBOM guidance pushes software supply-chain oversight into new territory.https://www.cio.com/article/4170711/cisas-ai-sbom-guidance-pushes-software-supply-chain-oversight-into-new-territory-2.html (accessed 2026-06-22). —Use: expert commentary on the measurement and verification gap (Gogia and others).↩

A11. TLCTC (2026-05-12).The Control Fixation in the Security Properties — A TLCTC critique of G7 SBOM-for-AI.https://www.tlctc.net/sbom-for-ai-control-fixation.html (accessed 2026-06-22; WebFetch returned 403, confirmed via a search cache). —Use: critique of the SP cluster.↩

A13. Bennet, K., Rajbahadur, G., Suriyawongkul, A., Stewart, K. (2024-10).Implementing AI Bill of Materials (AI BOM) with SPDX 3.0. Linux Foundation. DOI 10.70828/RNED4427.https://www.linuxfoundation.org/hubfs/LF%20Research/lfr_spdx_aibom_102524a.pdf (accessed 2026-06-22). —Use: analysis of SPDX field selection and gaps.↩

A14. SPDX AI Working Group (2026).Publications — FOSDEM 2026 (2026-02-01) SPDX 3.1 announcement.https://fosdem.org/2026/schedule/event/9Q9EEL-what_is_new_in_spdx_3_1_which_is_now_a_living_knowledge_graph/ (accessed 2026-06-22). —Use: SPDX 3.1’s addition of AI Agent, Prompt, and RAG.↩

A16. OWASP CycloneDX.Inventory Management Use Case: AI Models and Model Cards.https://cyclonedx.org/use-cases/ai-models-and-model-cards/ (accessed 2026-06-22). —Use: field gaps in ML-BOM and model cards.↩

E1. Morgan Lewis (2026-06-16).US CISA, G7 Partners … Release Minimum Elements for AI Software Bills of Materials.https://www.morganlewis.com/pubs/2026/06/us-cisa-g7-partners-in-europe-and-asia-release-minimum-elements-for-ai-software-bills-of-materials (accessed 2026-06-22; key facts cross-checked against C1/C2). —Use: analysis of regulatory alignment.↩

Summary

The EU Cyber Resilience Act (CRA — Regulation (EU) 2024/2847) is the first comprehensive product security regulation in EU history, imposing horizontal cybersecurity obligations on every “product with digital elements” (PDE) placed on the EU market. Entering into force on December 10, 2024, the Regulation applies in phases. From September 11, 2026, the Article 14 reporting obligations take effect, requiring manufacturers, importers, and distributors to notify ENISA (the European Union Agency for Cybersecurity) and member state CSIRTs of actively exploited vulnerabilities and severe security incidents within a staged 24-hour, 72-hour, and 14-day deadline structure. If a reporting workflow is not operational by this date, a company risks a fine of up to €15 million or 2.5% of worldwide annual turnover, and a Korean company becomes subject to these obligations the moment it places a product on the EU market.A1,B1,E1

1. Why September 11, 2026 Matters for Korean Companies

September 11, 2026 is the first application date for the CRA’s Article 14 reporting obligations. On the same day, ENISA’s Single Reporting Platform (SRP) also goes live.A1,B4 The CRA’s remaining essential obligations, including CE marking and conformity assessment, are due by December 11, 2027, but the reporting workflow must be in place 15 months ahead of that deadline.

The weight this date carries for Korean companies comes from the CRA’s legal character. The CRA is not a Directive that member states must transpose into national law; it is a Regulation with direct effect, applying immediately upon entry into the EU market without any separate national implementing legislation.A1 A company headquartered in Korea that exports directly to the EU without an EU legal entity does not escape coverage. It is also worth noting that legacy products — products already placed on the EU market — are covered as well.E1

As of June 2026, about three months remain before the reporting obligation takes effect. ENISA has said it will hold a testing period but has not yet released an official schedule, and it has announced that an operations manual will be provided sometime in June 2026. ENISA has also stated explicitly that, at this stage, it does not provide an API for SRP integration.B4 Companies that assumed automated integration will need to redesign their reporting process around manual submission to the platform by a human operator.

2. Structure of the CRA

2.1 Legislative Background and Entry-into-Force Timeline

The CRA’s official title isRegulation (EU) 2024/2847 on horizontal cybersecurity requirements for products with digital elements. It was first announced in President Ursula von der Leyen’s State of the Union address in September 2021, and the European Commission proposed the legislative text on September 15, 2022. The European Parliament adopted it in plenary on March 12, 2024 by a vote of 517 in favor to 12 against, and the Council gave its final adoption on October 10 of the same year, followed by signature on October 23 and publication in the Official Journal of the EU on November 20. The Regulation entered into force on December 10, 2024.A1,B1

Figure 1. CRA legislative and implementation timeline(Source: Regulation (EU) 2024/2847, EC Legislative Train)

The open source community’s advocacy stood out during the legislative process. During the 2022–2023 drafting stages, the Eclipse Foundation, the Open Source Initiative (OSI), the Document Foundation, and others warned that an unclear definition of “commercial activity” could push compliance burdens onto volunteer developers. The provisional agreement of December 2023 introduced the concept of an “open-source steward” along with exemption clauses, easing some of these concerns, but the scope of coverage for small-scale redistributors remains a matter of dispute.D1

2.2 Scope of Application (Art. 2–3)

The CRA applies to “products with digital elements” (PDE). This covers hardware and software capable of logical or physical data connection to a device or network, and includes software components placed on the market independently.B3

Some products fall outside the scope. The main examples are free and open-source software supplied without commercial activity, and products already covered by stricter sector-specific cybersecurity regulation, such as medical devices or automobiles. Even so, the CRA may apply in a “complementary” capacity to products already subject to existing cybersecurity regulation, so a sector-by-sector judgment is required.A1,E2

Figure 2. CRA scope determination flow(Source: CRA Art. 2–3, Implementing Regulation (EU) 2025/2392)

2.3 Phased Application

Full application of the CRA does not occur at a single point in time.

A1,B3

What must be in place by September 11, 2026 is not product certification but a vulnerability and incident reporting workflow. The deadline for CE marking and conformity assessment is 15 months later, on December 11, 2027.

3. Manufacturer Obligations (Art. 13)

3.1 Annex I Essential Requirements

Article 13 requires manufacturers to meet the essential cybersecurity requirements set out in CRA Annex I. These requirements fall into two broad groups.A1,B3

Part I — Product security requirements: placed on the market without known exploitable vulnerabilities, no default passwords, provision of security updates, application of the principle of least privilege, data protection, minimization of attack surfaces, resilience-by-design, and provision of records of access to and modification of personal data.

Part II — Vulnerability handling requirements: identifying and documenting vulnerabilities, maintaining an SBOM, providing patches promptly and distributing them free of charge, a Coordinated Vulnerability Disclosure (CVD) policy, reporting of exploited vulnerabilities and incidents (Art. 14), and monitoring for vulnerabilities across the full product lifecycle.

No harmonized standards for these requirements have been finalized yet, so manufacturers must implement them directly against the functional requirements in the CRA text itself. TheCRA Requirements Standards Mapping (2024), jointly published by ENISA and the JRC, maps these requirements to existing standards, with ISO/IEC 30111 (vulnerability handling), ISO/IEC 29147 (vulnerability disclosure), and NIST SP 800-218 (SSDF) serving as the main reference points.B5,C1,C2,C6

3.2 Support Period

Manufacturers must provide security support for the product’s expected lifetime after it is placed on the market, for a minimum of five years. For products with an expected lifetime of less than five years, that shorter period may serve as the support period. The support period must be stated explicitly on the product, and vulnerability handling and the provision of security updates are mandatory throughout it.A1,B3

3.3 SBOM Requirements

CRA Annex I Part II mandates a Software Bill of Materials (SBOM). Manufacturers must generate an SBOM for every released version and keep it in a machine-readable format, ready for requests from a Market Surveillance Authority. There is no obligation to disclose the SBOM to third parties, but it must be provided to the Market Surveillance Authority on request.A1

SPDX and CycloneDX have established themselves as the de facto standard formats. SPDX was standardized as ISO/IEC 5962:2021 (based on SPDX v2.2.1; the current specification is v3.0),C3,C4 and CycloneDX, a specification maintained by OWASP, saw ECMA-424 2nd Edition (based on v1.7) published on December 10, 2025.C5 No official CRA-level implementing act for an SBOM schema has been issued as of June 2026. Technical Guideline TR-03183-2 v2.1.0, published in August 2025 by Germany’s Federal Office for Information Security (Bundesamt für Sicherheit in der Informationstechnik, BSI), serves as a practical reference point for field mapping to a CRA-conformant SBOM.G1

4. Reporting Obligations (Art. 14) — Effective 2026-09-11

4.1 Notification Triggers

Article 14 defines two categories of events that trigger a manufacturer’s notification obligation.A1,B2

One is an actively exploited vulnerability. The trigger is not the vulnerability’s mere theoretical existence but the confirmed point at which an attacker is actually exploiting it. The other is a severe incident — an event that has caused, or is likely to cause, serious operational disruption, loss, or damage affecting the security of the product.

Beyond manufacturers, importers and distributors must also notify the manufacturer of relevant information when they discover non-compliance or become aware of an incident.

4.2 The Three-Stage Deadline (24h/72h/14d)

Figure 3. CRA Article 14 reporting deadlines(Source: CRA Art. 14, EC “CRA — Reporting obligations”)

The required content differs at each stage.A1,B2

The CRA text makes clear that the 24-hour deadline does not require vulnerability classification or full resolution. Its purpose is simply to flag the existence of the issue as an early warning. Microenterprises and small enterprises may be exempted from fines for failing to meet the 24-hour deadline.A1

4.3 Single Reporting Platform (Art. 16)

All Article 14 notifications go through the Single Reporting Platform (SRP). Operated by ENISA, the SRP automatically routes a single manufacturer submission to both the coordinator Computer Security Incident Response Team (CSIRT) of the member state where the manufacturer’s main establishment is located and to ENISA itself.B4,A1

In procuring the SRP, ENISA required a forward-looking architecture capable of integrating with the incident and vulnerability reporting systems of NIS2 and DORA. The design goal extends beyond CRA obligations alone, aiming for a platform that can interoperate with adjacent regulatory regimes.

Figure 4. Stakeholder interactions in the CRA reporting system(Source: CRA Art. 13–16, Delegated Regulation (EU) 2026/881)

4.4 Conditions for Delaying CSIRT-to-CSIRT Dissemination (Delegated Regulation 2026/881)

Delegated Regulation (EU) 2026/881, adopted on December 11, 2025 (published in the Official Journal on April 20, 2026), sets out the conditions under which a member state CSIRT need not immediately disseminate a notification it has received via the Single Reporting Platform to other CSIRTs.A2 Delay is permitted where an assessment of the nature of the notified information justifies it, where the receiving CSIRT cannot guarantee the confidentiality of the information, or where the Single Reporting Platform itself has been compromised or is temporarily unable to operate. Beyond that, delay is allowed only for the “period strictly necessary,” and only when the risk cannot be mitigated through tools such as the Traffic Light Protocol (TLP) or the Permissible Actions Protocol (PAP).

The 24-hour deadline for a manufacturer’s notification to a CSIRT is unaffected by this Delegated Regulation. What the Delegated Regulation touches is the further dissemination step between CSIRTs, where it introduces a security-based relief mechanism.

4.5 Parallel Application with GDPR and NIS2

A CRA reporting obligation can arise alongside reporting obligations under other regulations. Where the data compromised by a vulnerability or incident includes personal data, a CRA notification does not substitute for the 72-hour notification obligation to the supervisory authority under Article 33 of the General Data Protection Regulation (GDPR).A5 The two notifications must go through separate channels to separate recipients — the data protection authority on one side, the CSIRT/ENISA on the other.

The same holds for operators of essential and important services covered by the NIS2 Directive (Directive (EU) 2022/2555) that become aware of a vulnerability or incident in their own products. Both a CRA report and a NIS2 report may be required simultaneously. The Digital Omnibus package’s “report once, share many” model is being discussed as a way to unify the two reporting obligations, but it has not yet been settled in legislation.A4,E2

5. Conformity Assessment and CE Marking (2027-12-11)

December 11, 2027 is the deadline for conformity assessment. The pathway differs by risk class. Default-class products may self-assess to issue an EU Declaration of Conformity and affix the CE marking. Important Class I products may either self-assess by applying EU harmonized standards or obtain an assessment from a third-party Conformity Assessment Body (CAB). Important Class II and critical-class products require enhanced examination by a CAB.A1,B3

In February 2025, ENISA publishedCyber Resilience Act implementation via EUCC and its applicable technical elements, analyzing pathways for using EU Common Criteria (EUCC) certification in CRA conformity assessment.B6

From June 11, 2026, the provisions on notification of conformity assessment bodies apply. Each member state must designate a notifying authority by this date, and the accreditation process begins so that a sufficient number of notified bodies to carry out third-party conformity assessment are in place by December 11, 2026.B3

Penalties for non-compliance vary by the type of violation. The most serious violations — failure to meet essential requirements, breach of reporting obligations — can draw a fine of up to €15 million or 2.5% of worldwide annual turnover, whichever is greater, and can also result in an order to withdraw the product from the EU market.A1,E1

6. Standards and Framework Mapping

The CRA sets out only essential requirements and delegates technical detail to harmonized standards. CEN/CENELEC JTC 13 WG 9 is developing European harmonized standards (EN) for the CRA, targeting publication of the horizontal standards by August 30, 2026 and the vertical standards by October 30, 2026. The horizontal standards proceed as the prEN 40000-1 series, consisting of vocabulary (prEN 40000-1-1), principles (prEN 40000-1-2), vulnerability handling (prEN 40000-1-3), and general security requirements (prEN 40000-1-4). The final list of cited standards has not yet been settled, so the table below can be used as a set of candidate mappings for the time being.B5

C1,C2,C3,C4,C5,C6,G1,C7

The European Vulnerability Database (EUVD), implementing Article 12 of the NIS2 Directive, was formally launched by ENISA on May 13, 2025.F1 It can serve as a primary monitoring source for the CRA’s “vulnerability monitoring” requirement. The EUVD uses its own identifier (EUVD-YYYY-NNNNNN) while also recording the corresponding CVE ID and CVSS score. It is a separate system from the SRP: the SRP is the channel through which manufacturers notify authorities, while the EUVD is a public database.B4,F2

7. Recent Developments (2025–2026)

Since entry into force in December 2024, the regulatory landscape has taken shape along three tracks: delegated regulations, implementing regulations, and guidance.

Implementing Regulation (EU) 2025/2392 was adopted on November 28, 2025 and entered into force on December 21. It finalized the technical definitions dividing “important” and “critical” products — as referenced in CRA Annexes III and IV — into 28 categories, placed across the three tiers of Class I, Class II, and critical. This Regulation is the primary legal basis manufacturers use to determine the conformity assessment pathway for their products.A3

Delegated Regulation (EU) 2026/881 was adopted on December 11, 2025 and published in the Official Journal on April 20, 2026. It codifies the conditions under which CSIRT-to-CSIRT dissemination of notifications may be delayed (see §4.4).A2

Guidance documents have arrived in two stages. The Commission’s first official FAQ was published on December 3, 2025 (updated December 19), offering the first — non-binding — clarification of the scope and iterativeness of risk assessment and of the “intended purpose” concept. The first draft guidance under CRA Article 26 followed on March 3, 2026. Running to 75 pages, with roughly a quarter devoted to defining the open-source steward, the draft covered remote data processing solutions, free and open-source software, the support period, and the CRA’s interrelationship with other regulations such as NIS2 and DORA. The consultation closed on March 31, but the final version has not been issued as of June 2026.E3

The open source community’s collective response became visible on April 2, 2024, when seven foundations — the Apache Software Foundation, the Blender Foundation, the Eclipse Foundation, OpenSSL, the PHP Foundation, the Python Software Foundation, and the Rust Foundation — announced they would jointly develop common standards for secure software development. The effort was led by the Eclipse Foundation AISBL in Brussels and evolved, on September 24 of the same year, into the Open Regulatory Compliance Working Group (ORC WG), which published a white paper laying out the scope of a steward’s obligations. OpenSSF published its direction for aligning SBOM standards on October 22, 2025.F3,D1

The most persistent point of contention is the practical value of 24-hour notification. Security researchers, HackerOne among them, have repeatedly argued since 2024 that notifying authorities of a vulnerability’s existence before a patch is ready risks exposing an unmitigated vulnerability.E4 Delegated Regulation (EU) 2026/881 only introduced conditions for delaying CSIRT-to-CSIRT dissemination; it left the manufacturer’s 24-hour deadline to the CSIRT itself untouched.

8. A Korean Company Perspective — What to Do in the Next Three Months

8.1 Determining Whether the CRA Applies

The first step is to determine whether the reporting obligation, due September 11, 2026, applies to the company at all. Check in turn: whether the product is distributed in the EU market, whether the product is a product with digital elements, and whether stricter sector-specific cybersecurity legislation already applies. EU distribution covers direct sales, resale, and OEM supply alike, and the CRA applies even without an EU legal entity if the Korean headquarters exports directly. Software or hardware capable of data connection with a network or a device qualifies as a product with digital elements. Areas already covered by stricter regulation, such as medical devices or automotive safety, may be excluded from CRA application.

Legacy products are covered too. Many companies overlook the fact that the reporting obligation, effective September 11, applies even to products already placed on the EU market.E1

8.2 Preparation Steps

There is no need to have certification in place by September 11. What is needed is a reporting workflow. The company needs a human structure and technical connection able to send an early warning within 24 hours of becoming aware of a vulnerability or incident, and an on-call rotation, decision-making authority, and an external communications owner should all be designated in advance.

A pipeline that automatically generates and retains an SBOM in SPDX or CycloneDX format for every released version is also needed by September 11. The field mapping in BSI TR-03183-2 v2.1.0 can serve as a practical reference.G1

ENISA has stated that it does not provide an API for SRP integration at this stage (as of June 2026). Since the operations manual is expected during June, companies should build a manual submission process rather than assuming automated integration, and watch for ENISA’s manual and its announcements about the testing period.

A process for monitoring the EUVD (https://euvd.enisa.europa.eu) against the company’s own product components is also needed. The company must be able to handle both the CVE ID andEUVD-YYYY-NNNNNN identifier schemes.

By December 11, 2027, companies need to go a step further: CE marking, conformity assessment, selecting a CAB matched to the product’s class (for Class I and above), and issuing a declaration of conformity once the harmonized standards are published. Companies should track the publication of CEN/CENELEC’s horizontal standards (targeting August 30, 2026) and vertical standards (targeting October 30, 2026).

8.3 Comparison with Other Jurisdictions

C6,E2

The CRA’s most notable feature is its horizontal application, cutting across IoT, software, and embedded systems alike, combined with direct effect. Korea’s Software Supply Chain Guideline 1.0, based on NIST SSDF, recommends 30 checklist items and SBOM procedures; because the CRA’s essential requirements are functionally aligned with the SSDF, a system built to follow the Korean guideline is a starting point for CRA readiness. That said, the Korean guideline is advisory, whereas the CRA is a legal obligation backed by a fine regime, and the CRA adds a separate reporting obligation on top.

9. Conclusion and Recommendations

September 11, 2026 is the day the CRA first imposes a substantive compliance obligation on manufacturers. CE marking and conformity assessment are due by December 11, 2027, but the reporting workflow must be complete before then.

For a Korean company, the priority is first to confirm whether its products fall within CRA scope, and if so, to determine — under the criteria of Implementing Regulation (EU) 2025/2392 — which class applies: default, important, or critical. The class determines both the 2027 conformity assessment pathway and the lead time required to prepare for it.

Building the reporting infrastructure and internal playbook comes next. The SRP operations manual has not yet been released, but the human structure and internal procedures can be designed right now regardless. Since ENISA has said it will not provide an integration API, companies should set up a manual submission process for the platform rather than automated integration, and watch for the manual and announcements about the testing period.

SBOM pipeline automation must be finished by September 11. Without an SBOM in SPDX or CycloneDX format automatically generated and retained for every released version, a company will find itself lacking the very software composition information the reporting obligation requires.A1,B2,E2,E4

References

A. Primary Legislative and Regulatory Texts

A1. European Parliament and Council (2024).Regulation (EU) 2024/2847 of 23 October 2024 on horizontal cybersecurity requirements for products with digital elements (Cyber Resilience Act). Official Journal of the European Union, OJ L, 2024/2847, 20.11.2024.https://eur-lex.europa.eu/eli/reg/2024/2847/oj/eng (accessed: 2026-05-12).↩

A2. European Commission (2025).Commission Delegated Regulation (EU) 2026/881 of 11 December 2025 supplementing Regulation (EU) 2024/2847 with regard to the conditions for delaying dissemination of notifications of actively exploited vulnerabilities and severe incidents. Published 20 April 2026.https://eur-lex.europa.eu/eli/reg_del/2026/881/oj (accessed: 2026-05-12).↩

A3. European Commission (2025).Commission Implementing Regulation (EU) 2025/2392 of 28 November 2025 laying down technical descriptions of categories of important and critical products with digital elements. OJ L, 2025/2392.https://eur-lex.europa.eu/legal-content/EN/TXT/PDF/?uri=OJ:L_202502392 (accessed: 2026-05-12).↩

A4. European Parliament and Council (2022).Directive (EU) 2022/2555 of 14 December 2022 on measures for a high common level of cybersecurity across the Union (NIS2 Directive). OJ L 333, 27.12.2022.https://eur-lex.europa.eu/eli/dir/2022/2555/oj/eng (accessed: 2026-05-12).↩

A5. European Parliament and Council (2016).Regulation (EU) 2016/679 — General Data Protection Regulation (GDPR). OJ L 119, 4.5.2016.https://eur-lex.europa.eu/legal-content/EN/TXT/HTML/?uri=CELEX:32016R0679 (accessed: 2026-05-12).↩

B. Official Documents from Issuing Bodies

B1. European Commission, DG CNECT (2026).Cyber Resilience Act — Shaping Europe’s digital future.https://digital-strategy.ec.europa.eu/en/policies/cyber-resilience-act (accessed: 2026-05-12).↩

B2. European Commission, DG CNECT (2026).Cyber Resilience Act — Reporting obligations.https://digital-strategy.ec.europa.eu/en/policies/cra-reporting (accessed: 2026-05-12).↩

B3. European Commission, DG CNECT (2024).The Cyber Resilience Act — Summary of the legislative text.https://digital-strategy.ec.europa.eu/en/policies/cra-summary (accessed: 2026-05-12).↩

B4. ENISA (2026).Single Reporting Platform (SRP).https://www.enisa.europa.eu/topics/product-security-and-certification/single-reporting-platform-srp (accessed: 2026-05-12).↩

B5. ENISA & Joint Research Centre (2024).Cyber Resilience Act Requirements Standards Mapping — Joint Analysis. April 2024.https://www.enisa.europa.eu/publications/cyber-resilience-act-requirements-standards-mapping (accessed: 2026-05-12).↩

B6. ENISA (2025).Cyber Resilience Act implementation via EUCC and its applicable technical elements. 26 February 2025.https://certification.enisa.europa.eu/publications/cyber-resilience-act-implementation-eucc-and-its-applicable-technical-elements_en (accessed: 2026-05-12).↩

C. Standards and Frameworks

C1. ISO/IEC (2019).ISO/IEC 30111:2019 — Information technology — Security techniques — Vulnerability handling processes. Edition 2.https://www.iso.org/standard/69725.html (accessed: 2026-05-12).↩

C2. ISO/IEC (2018).ISO/IEC 29147:2018 — Information technology — Security techniques — Vulnerability disclosure. Edition 2.https://www.iso.org/standard/72311.html (accessed: 2026-05-12).↩

C3. ISO/IEC (2021).ISO/IEC 5962:2021 — Information technology — SPDX® Specification V2.2.1.https://www.iso.org/standard/81870.html (accessed: 2026-05-12).↩

C4. The Linux Foundation / SPDX Project (2024).SPDX Specifications (current: v3.0).https://spdx.dev/specifications/ (accessed: 2026-05-12).↩

C5. OWASP Foundation / Ecma International (2025).CycloneDX Specification v1.7 / ECMA-424, 2nd Edition. ECMA-424 published 2025-12-10.https://cyclonedx.org/specification/overview/ (accessed: 2026-05-12).↩

C6. Souppaya, M., Scarfone, K., Dodson, D. — NIST (2022).Secure Software Development Framework (SSDF) Version 1.1: Recommendations for Mitigating the Risk of Software Vulnerabilities. NIST SP 800-218. DOI: 10.6028/NIST.SP.800-218.https://csrc.nist.gov/publications/detail/sp/800-218/final (accessed: 2026-05-12).↩

C7. OpenSSF Global Cyber Policy Working Group (2026).CRA Standards Map.https://policy.openssf.org/CRA/standards.html (accessed: 2026-06-09). —Used to verify the numbering and status of CEN/CENELEC JTC 13 WG 9’s prEN 40000-1 series (horizontal harmonized standards).↩

D. Academic and Policy Research

D1. OpenSSF Best Practices WG / Global Cyber Policy WG (2025).Cyber Resilience Act (CRA) Brief Guide for Open Source Software (OSS) Developers. Lead author: David A. Wheeler.https://best.openssf.org/CRA-Brief-Guide-for-OSS-Developers.html (accessed: 2026-05-12).↩

E. Industry and Law Firm Analysis

E1. Bird & Bird LLP (2026).CRA’s phased entry into application starts in September 2026. Bird & Bird Insights.https://www.twobirds.com/en/insights/2026/cra%E2%80%99s-phased-entry-into-application-starts-in-september-2026 (accessed: 2026-05-12).↩

E2. DLA Piper — Blum, L. & Moylan Burke, L. (2026).Cyber Resilience Act: What you need to know and what you need to be doing. 19 February 2026.https://www.dlapiper.com/en/insights/publications/2026/02/cyber-resilience-act-what-you-need-to-know-and-what-you-need-to-be-doing (accessed: 2026-05-12).↩

E3. DLA Piper (2026).Cyber Resilience Act: Commission unveils draft implementation guidance. Law in Tech.https://www.dlapiper.com/en-us/insights/publications/law-in-tech/2026/cyber-resilience-act (accessed: 2026-05-12).↩

E4. HackerOne — Eldering, B. (2026).EU Cyber Resilience Act: Preparing Your VDP for 2026 Reporting Requirements.https://www.hackerone.com/blog/cyber-resilience-act-vdp-2026-reporting-readiness (accessed: 2026-05-12).↩

F. Press and Official Announcements (Supplementary)

F1. ENISA (2025).Consult the European Vulnerability Database to enhance your digital security! News release, 13 May 2025.https://www.enisa.europa.eu/news/consult-the-european-vulnerability-database-to-enhance-your-digital-security (accessed: 2026-05-12).↩

F2. European Commission (2025).EU launches a European vulnerability database to boost its digital security.https://digital-strategy.ec.europa.eu/en/news/eu-launches-european-vulnerability-database-boost-its-digital-security (accessed: 2026-05-12).↩

F3. Eclipse Foundation (2024).The Open Source Community is Building Cybersecurity Processes for CRA Compliance. Life at Eclipse, 2 April 2024.https://eclipse-foundation.blog/2024/04/02/open-source-community-cra-compliance/ (accessed: 2026-05-29).↩

G. Member State Technical Guidance

G1. Bundesamt für Sicherheit in der Informationstechnik (BSI) (2025).Technical Guideline TR-03183-2 v2.1.0 — Cyber Resilience Requirements for Manufacturers and Products, Part 2: Software Bill of Materials (SBOM). August 2025. Summary compiled by: Sbomify,EU Cyber Resilience Act (CRA) SBOM Requirements.https://sbomify.com/compliance/eu-cra/ (accessed: 2026-05-12).↩