How do you translate SLSA Verifier CLI documentation without confusing artifact integrity, build provenance, signer identity and SLSA assurance levels? This world-facing guide teaches the language of software supply-chain verification for technical translators, documentation editors, release engineers and security learners. It explains which parts of a command or attestation are human-facing descriptions and which must remain exact for software to verify them.
SLSA, short for Supply-chain Levels for Software Artifacts, describes practices and evidence for protecting software production. The SLSA Verifier command-line project examines build and source provenance and verification summary attestations. Its published interface distinguishes build, source and vsa verification paths. A translation can help readers understand each check, but it must not promise that a cryptographically valid file proves a safe build, that a self-asserted builder ID is trustworthy or that every SLSA implementation has the same command syntax.
The first principle is simple: a claim, a signature, an expected signer and a trust policy are separate things. This article moves from that basic distinction into attestation formats, identity binding, command flags, exit codes, reproducible workflows, examples of ambiguous outcomes, Unicode and right-to-left documentation checks and an editorial QA checklist. Commands are illustrative; confirm the version-specific interface and trust roots before using any output to make a release decision.
At a glance: six decisions before running verification
- Identify the exact artifact and its digest.
- Choose the appropriate build, source or vsa path for the evidence.
- Preserve input formats, JSON keys, digests, URLs, command flags and source references.
- Require the expected signer and appropriate trust bindings for meaningful verification.
- Interpret policy failure separately from tool execution failure.
- Test copy-paste, UTF-8 and right-to-left rendering before publishing translated examples.
SLSA foundations and the verifier’s trust model
1. Start with the decision a verifier supports
A SLSA verifier is useful when a consumer needs evidence about where software came from and which production safeguards applied. It does not substitute for source-code review, vulnerability assessment or operational monitoring. Its output helps evaluate the supply chain against a stated policy. An accurate translation names that purpose before showing unfamiliar command flags.
Consider a release manager receiving a package and a provenance document. The manager needs to know whether the document concerns those exact bytes, was issued by an expected build system and satisfies required controls. A translated tutorial that says ‘check whether the file is secure’ omits these necessary conditions and turns a bounded assurance into a general guarantee.
Ask a reader to explain what they would accept or reject after verification. If they cannot name the artifact, trusted builder or policy level, rewrite the introduction. The point is not merely to run a CLI successfully; it is to make a defensible release decision.
2. What SLSA stands for
Supply-chain Levels for Software Artifacts is the expanded name behind SLSA. The acronym belongs to a framework for improving and assessing supply-chain integrity. It is often spoken as ‘salsa’, but translators should retain the acronym SLSA in technical identifiers and consistently translate its explanation at first mention.
The levels and tracks convey specific requirements. A prose summary should not treat every occurrence of the number 3 as a quality rating or mix source and build tracks. Write a short definition in the target language, then link to the authoritative specification rather than creating a local interpretation of what each level promises.
A good check asks whether a beginner understands that the framework is about how software was produced and evidenced, not a generic certification logo. Preserve the original framework name in citations, repository names and command examples so readers can find the current specification.
3. Provenance is evidence about an origin
Build provenance describes how a particular software artifact was built, including the builder and input relationships recorded by the producer. Source provenance can describe how source was obtained or managed. These are evidence documents with a scope and an issuer, not omniscient records of everything that happened inside a development organization.
If a document says an artifact came from a named workflow, that assertion must be checked against trusted signing identity and expected builder relationships. Translating ‘provenance’ as ‘ownership’ can mislead because owning an artifact does not prove the build path. ‘Origin and build evidence’ is often a more practical explanation than a single broad synonym.
To review the translation, ask which question each evidence type answers. Where the source names a build process, keep that distinction. Where it names a repository or branch, do not reinterpret it as an endorsement from every developer who has access to that organization.
4. The artifact’s bytes are the reference point
A release package, executable or container artifact is what the consumer is trying to validate. Its cryptographic digest creates a machine-checkable link to a document’s subject. A human-readable filename is a useful label, but may not uniquely identify the bytes after rebuilding, repacking or mirroring.
A file called app-linux.tar.gz can be replaced without changing its name. A digest is more specific, although it must still be associated with the intended artifact. If a translated tutorial says to compare names only, readers may accept evidence for the wrong binary. Introduce the distinction with two identically named but differently hashed demo files.
QA should check digest algorithm prefixes, hexadecimal bytes and expected subject relationships. Keep exact digests untouched within examples. Do not add spaces for readability or translate words embedded in digest-bearing URLs. A single character change can defeat equality checks.
5. Three SLSA Verifier entry points
The maintained verifier documentation presents build, source and vsa subcommands. These correspond to distinct verification targets. A translation should display those command names in code style and describe what evidence each evaluates rather than assuming a single generic verification procedure fits every artifact.
For example, slsa-verifier build and slsa-verifier source do not ask the same evidence questions. One evaluates controls associated with build provenance; the other focuses on source provenance. A Verification Summary Attestation, or VSA, is itself a statement by a verifier, so its trust path involves the verifier’s identity and what was actually checked.
Teach the reader to recognize the input type before selecting a subcommand. In bilingual reference pages, put the translated description next to a literal, copyable executable command. The original subcommand spelling must not change when the surrounding language changes.
6. Version boundaries in SLSA tooling
SLSA tooling has developed across repositories and releases. Older tutorials, GitHub workflow examples and newer command references may show different interfaces. A responsible guide must identify which documented CLI it describes instead of combining options from unrelated releases into one sample that cannot run.
The safest first step is slsa-verifier –help and then the applicable subcommand’s –help on the installed binary. The project’s maintained README and release documentation should be treated as primary references. If a translated screenshot conflicts with the executable, the command’s version takes priority for operational use.
Editors should add a clear note that flags and formats are version-sensitive, without freezing the article to a date-specific promise. Do not silently modernize one flag in a command while leaving the rest of an older workflow intact; that can make provenance verification appear broken for reasons unrelated to security.
7. Understanding in-toto statements
The in-toto statement format carries assertions about subjects and predicates. A subject identifies what the claim concerns; the predicate supplies the specific type of evidence. The schema, type identifiers and field names are designed for machines and should remain unchanged inside serialized examples.
A local-language explanation can say that ‘subject’ means the artifact being described, but it should not replace the JSON property name subject with a translated key. Similarly, a predicate type URI is an identifier rather than a web heading to paraphrase. The reader must be able to paste an example into a parser.
Build an editorial table with two columns: exact machine key and translated meaning. It teaches the concept without altering the object. A second reviewer should validate every sample as JSON and confirm the original property names, type identifiers and subject digests remain intact.
8. DSSE envelopes as containers for statements
Dead Simple Signing Envelope, usually abbreviated DSSE, allows payloads to be wrapped for signing. It is important to distinguish the signed envelope from the statement inside it. The envelope protects a representation of a claim; the evidence within still needs semantic checks under the consumer’s policy.
If an author writes ‘DSSE verifies the build’, the sentence skips crucial steps. A verifier must process signatures, signer identity, subject, builder and applicable controls. Introduce DSSE as a format, not a quality score. The same principle holds when an attestation is stored inside a larger artifact bundle.
Retain the acronym and the original machine field names. If presenting an encoded payload, do not translate or reflow its bytes. When a local edition adds explanatory notes, place them outside the serialized example so a reader can still copy and test the payload unchanged.
9. Sigstore bundles and verification material
Sigstore bundles can package signatures and associated material required to assess them. A bundle is not a simple certificate of ‘good software’. Verification still needs to check appropriate roots of trust, identity constraints, validity and association with the exact artifact or statement in question.
When a release team receives a .sigstore.json file, it should know whether it is a signed build attestation, source attestation or other bundle. A localized guide should not describe every JSON file as provenance. A file extension reveals packaging, not whether the claims inside meet the requested SLSA level.
Use a sample folder layout containing artifact, digest record and evidence file. Ask a learner to identify the consumer’s expected signer before running a command. Keep actual filenames and extensions literal in code and reserve translations for human-facing captions.
10. Signatures without expected identity
A valid digital signature shows that content has not been altered relative to a signing key, under a suitable verification process. It does not automatically establish that the signer was authorized to make the particular claim. The verifier documentation explicitly discusses permissive inspection modes and the importance of binding signatures to expected identities.
A demonstration may pass format checks while accepting an arbitrary signer. That is insufficient for a release gate. An accurate translation differentiates ‘signature validated’ from ‘trusted signer matched’. Avoid the broad label ‘authentic’ unless it is tied to the exact policy that defines the acceptable actor.
Ask reviewers to identify a case in which a validly signed document should still fail organizational policy. If the translated explanation cannot describe such a case, it is likely overstating what cryptography alone establishes.
11. The signer specification
The maintained CLI documents signer specifications and examples such as –signer along with signature requirements. These options allow a consumer to require an identity associated with a particular trusted source. A translator must keep the flag spelling and the expected signer value exact while explaining how the policy constrains acceptance.
A workflow-specific signer should not be rewritten as the name of a company in prose if the actual required identity is a narrower automated principal. The difference matters: a GitHub organization can contain many workflows, not all approved to produce the same release. Translation must not broaden an identity boundary.
Use fictional identity strings in public examples, and label them as placeholders. In real deployments, identity configuration should come from an approved policy. QA should compare quotes, equal signs, URIs and OIDC identity references bytewise with source instructions.
12. Builder identity versus signer identity
A provenance document may claim a builder.id, while a signature comes from a signing identity. The crucial question is whether the claim about the builder is appropriately bound to the signer that the consumer trusts. The verifier’s published trust model explicitly describes builder registries and bindings.
Merely seeing a familiar builder name inside a signed document is not enough if an untrusted producer could make the same claim. A local-language guide should explain this with a concrete comparison: the speaker says ‘I represent the approved builder’, while the verifier asks for independent evidence tying that speaker to the builder.
Keep builder.id, signer identifiers and binding records in separate conceptual boxes. Where the tool reports an unproven builder identity, do not translate the outcome as ‘proven build’. Consumers need to know what is established and what is still only asserted.
13. Builder registries and trust roots
A verifier can rely on known builder-to-signer relationships, optionally supplemented by explicitly configured bindings. Such registries help turn an otherwise self-asserted builder claim into a checkable identity relationship. They are policy inputs, not databases that automatically certify all builders in the world.
An organization with a private build system may need its own approved mapping rather than a generic public default. A translation should mention that administrators must assess and maintain these bindings. The existence of a registry entry should not be described as permanent approval without review.
Use a two-builder example: one mapped to the expected signer and one lacking a trusted binding. Ask which one meets policy and why. The lesson should produce different outcomes even if both statements name plausible build systems.
14. Build provenance verification
The build subcommand evaluates provenance against its applicable SLSA controls. A current documentation example includes a build command with –require-signatures, –signer and –level options. The complete semantics depend on the tool version and supplied trust configuration, so run local help before copying example flags into automation.
The words ‘SLSA Build level’ are not simply a rank from weak to strong without context. The level refers to documented controls and evidence criteria. A translated release note should state the requested level and what input satisfied it, instead of using a badge that implies every security property has been audited.
When localizing an example, leave subcommand order, option spelling and file paths intact. Translate the explanation of why signatures and signer requirements are present. If the text states that the build passed, make clear that it passed the requested checks under the configured policy.
15. Source provenance verification
Source provenance focuses on how source inputs are represented and controlled. The maintained verifier includes source-related options and an official-workflow identity path in its examples. Those controls differ from the checks performed for build provenance; a source attestation should not be relabeled as a build attestation for reader convenience.
A source document may identify a branch or revision. These are precise references, not poetic descriptions. Rewriting refs/heads/main as ‘primary branch’ inside a command can cause a policy to match the wrong value. Describe the branch in prose while retaining its exact Git reference.
A clear QA exercise asks students to distinguish the state of source from the process that compiled it. They should then inspect the expected branch, trusted source producer and relevant controls. The resulting explanation needs to be operationally meaningful, not merely linguistically fluent.
16. Verification Summary Attestations
A Verification Summary Attestation records a verifier’s summary of checks. It is one layer removed from the original evidence: someone assessed evidence and issued a summary about the result. The maintained tool supports a vsa path and makes verifier identity binding central to trusting that summary.
A consumer receiving a VSA should ask who ran the verification, what controls were evaluated and whether the VSA refers to the correct artifact. Signing a summary does not retroactively correct missing checks. A translated guide should avoid a sentence that treats a VSA as equivalent to direct evidence of the entire build.
To teach the distinction, show three cards: artifact, provenance and VSA. Ask what was directly built, what was claimed about production and what was reported about the verification. This prevents the common mistake of calling every object a ‘certificate’.
17. Who is allowed to issue a VSA?
The documented VSA trust model requires binding verifier identities to accepted signers unless an explicit exception is enabled. This protects consumers from treating a VSA with a familiar-looking verifier ID as trusted just because someone signed it. An identifier inside the VSA is still a claim.
If an attacker can issue a document containing the name of your trusted verifier, the name alone proves nothing. The consumer must check the signer binding or authoritative registry. A local-language version should say ‘expected verification service identity’ rather than translating that concept into a loose word for ‘reviewer’.
In QA, compare an approved verifier-signer pair and an unknown signer making the same verifier claim. A correct explanation says why the second is not acceptable under the policy. Never portray an allow-unbound exception as a recommended production default.
18. Understanding the requested level
The –level option describes a requested assurance criterion for the relevant verification path. The corresponding interpretation must come from the maintained tool and SLSA specification. Do not infer from a reported pass that the organization has met unrelated requirements such as application security testing, licensing or vulnerability remediation.
An article might illustrate Level 3 controls for a particular build or source path. The translator should not generalize the label to ‘third-degree cybersecurity’. It has a specific framework meaning, and the reader may need to consult the track and policy context to understand it.
Use a bilingual glossary for level, control, track, predicate, builder and signer. Test whether colleagues can explain each without treating them as interchangeable performance ratings. Retain numeric values and constant identifiers exactly in code.
19. PASS, FAIL and inability to run
The maintained verifier documentation identifies distinct exit outcomes: successful verification, verification failure and an execution problem. A check that could not run because of missing key material or bad input is not equivalent to a failed security control, and neither should be silently interpreted as a pass.
Suppose a CI job cannot open an attestation file. An operator reading a poorly translated message might conclude that the build failed SLSA checks. In fact, no meaningful assessment completed. Conversely, treating that error as a harmless warning could allow an unverified release.
Write three clear outcome labels, then show what action a responsible team takes: accept according to policy, investigate a verified failure, or repair the verification environment and rerun. Keep exit codes numeric and check the installed version’s command reference before publishing.
20. Handling an unproven builder identity
A tool can accept an attestation’s structure while reporting that a builder identity was not adequately bound to an expected signer. This outcome matters because a claimed builder in the payload is not the same as an independently established builder relationship. Translations should convey the remaining uncertainty.
A hurried summary such as ‘the builder was checked’ might conceal a critical warning. Better wording describes what was checked and which trust binding was absent. An engineer then knows whether to configure an approved signer mapping or reject the evidence rather than change the artifact itself.
For educational QA, make a checklist of claims shown by the statement and those established by verification. If the localized report presents the same claims in both columns, readers will miss the difference between a machine-readable assertion and trusted proof.
21. Statements are not evidence-free truth
Attestations contain claims supplied by their producers. Even when format, signatures and identity constraints are correct, the consumer still decides whether a producer’s process is trustworthy and whether the document supports the required policy. This is normal security reasoning, not a defect in the protocol.
A trusted organization can make a mistake, a compromised workflow can produce misleading records, and an incomplete build declaration can omit relevant input. Verification narrows certain threats; it does not abolish all uncertainty. A mature translated guide should state those limits rather than promise ‘unhackable software’.
Ask a reviewer to name at least one risk that remains after a successful provenance check. Good answers include compromised source before build, policy misconfiguration and vulnerabilities in faithfully built code. If the article has suggested none remain, refine its claims.
22. Git references and URI identity
Repository URLs, workflow paths and branch references are often treated as ordinary words by translation tools. In a provenance verification context they are exact identity elements. Lowercasing a case-sensitive path, changing a slash or translating refs/heads/main may invalidate a match.
A sample might refer to a workflow in .github/workflows/release.yml. The file path is a literal string; it does not become ‘.github/workflows/publication.yml’ in another language. Translate only the caption describing the workflow. The distinction is critical when reviewers must reproduce an expected signer policy.
Build a protected-token glossary before localizing. Include identifiers, URI schemes, paths, digests, predicate types and flag values. Have a separate reviewer check them using text comparison after the localized page is rendered.
23. Human-readable error messages
Command output can contain explanations of missing input, invalid signatures, unbound identities or unmet controls. Such messages are valuable teaching material, but a translation must preserve the operational distinction between an input error, an environmental failure and a genuine policy rejection.
If an error says a file was unreadable, do not translate it as ‘the package was malicious’. If it says a signer did not match, do not say ‘the signature file is corrupt’. Both mislead troubleshooting. Give the original diagnostic line in a protected code block and a clear translated interpretation beneath it.
For public examples, use fabricated paths and identities rather than secrets or production repositories. Ask reviewers to identify the likely next diagnostic action for each message. The translation is successful when it directs the user to the right remedy without exaggerating the failure.
24. Unicode and copy-paste hazards
A flag such as –signer can be broken by replacing the two ASCII hyphens with a typographic dash. Digests, file paths and URIs can likewise be corrupted by fullwidth punctuation or bidirectional marks. Multilingual documentation must prioritize exact copyability over ornamental typography inside code samples.
In a language that uses different numeral glyphs, it may be appropriate to display localized numbers in narrative text but not in numeric flag values or cryptographic identifiers. A visual comparison may miss these changes. Unicode normalization rules must be applied deliberately and never to arbitrary opaque identifiers.
Test commands by copying them from the published page into a safe environment with a matching binary version. Compare important tokens bytewise with the original source. Ensure code blocks remain left-to-right where needed, even when the surrounding page uses a right-to-left script.
25. Right-to-left layouts for provenance examples
Arabic and Hebrew documentation often combines local-language explanations with English-style code, hashes and URLs. Visual ordering can change around slashes, parentheses and colons. The displayed string must still correspond to the original bytes when copied, or the trust policy and artifact checks may silently fail.
Isolate code samples with left-to-right direction and render literal values in monospace. A translated explanation can precede or follow the code, but should not place punctuation inside the identity value. Be especially cautious with GitHub URLs, OIDC issuer URLs, branch refs and JSON keys.
Test on narrow mobile screens as well as desktops. Some fonts make different dash characters appear similar, and some themes wrap long digest strings confusingly. A bilingual technical reviewer should inspect both displayed direction and copied plain text.
26. Example: a valid signature from the wrong actor
An engineer receives a signed provenance statement for a package. The signature validates cryptographically, but the identity belongs to a developer’s test workflow rather than the organization’s approved release builder. The correct operational decision is not to accept the package merely because the mathematics succeeded.
A precise translation says the signer did not satisfy expected identity policy. It does not describe the artifact as necessarily infected, nor does it call the attestation ‘verified for release’. The release manager may investigate the signing configuration or request evidence from the authorized workflow.
Ask learners which evidence would change the decision: another signature, a new policy approval or a new build from the correct system? The answer depends on policy, but every path requires explicit authorization rather than a change of words in the documentation.
27. Example: the wrong artifact digest
A team mirrors a release and accidentally republishes a rebuilt binary under the old filename. The attached provenance names the original digest. A check that only compares filenames seems reassuring, but one that compares the actual bytes detects the mismatch.
A localized incident note should explain that the provenance does not apply to the newly received artifact, even if the project name and version label match. There is no need to speculate that the new package is malicious. The actionable issue is a missing valid evidence binding.
This case is a useful teaching test because it isolates artifact identity from software reputation. Have students list which exact hash or subject relationship must be checked and where the mismatched value appears. Avoid hiding the mismatch behind a translated filename.
28. Example: a build control fails
Assume the signer and artifact identity match but a required build provenance control is not satisfied. That is materially different from an input file that cannot be read and from an untrusted signer. A release policy may reject this artifact because the evidence does not demonstrate the requested build assurance.
Translate the diagnostic in terms of the particular control, not a broad verdict about the entire software ecosystem. If more detail is available, direct the reader to the report. Do not inflate a control failure into a statement that malicious code was detected.
A classroom comparison of three outputs—policy fail, invalid input and identity mismatch—helps learners practice careful reading. Each has a different likely owner: build engineering, tool configuration or trust policy. A good localized guide makes these boundaries clear.
29. Example: source provenance uses the wrong branch
A provenance document can be perfectly signed yet refer to a development branch when the consumer requires a release branch. That difference may be critical to acceptance. The source verifier can use expected-branch constraints where supported by the installed version and producer format.
A translation should not replace the literal ref with a friendly branch description. Explain why the expected branch was specified, then show the exact source reference in code. If teams rename branches, update policy and documentation together rather than assuming two names are synonyms.
Ask reviewers whether they can trace the branch value from the policy through the attestation and diagnostic output. If the localized prose says ‘correct repository’ but omits the required branch, it leaves out an important part of the provenance decision.
30. Example: a VSA from an unknown verifier
A received Verification Summary Attestation claims that all required controls passed. The signer, however, is not bound to an approved verification identity. Accepting that summary would allow an arbitrary actor to assign assurance outcomes to artifacts.
A careful localized explanation says the claimed verifier identity is not established under the consumer’s trust rules. It does not state that the underlying build necessarily failed, since the consumer has not yet obtained a trusted assessment. The next step is to verify via an approved service or inspect evidence directly.
This scenario is especially useful for explaining why a VSA is not merely a translated certificate. Its meaning depends on the actor who issued it, the controls summarized and the evidence relationship to the artifact.
31. Publishing a practical multilingual runbook
A release runbook should begin with required inputs and the expected policy, continue through a copyable verification command and end with explicit interpretations of pass, fail and inability to run. Readers in different regions need the same decision path, even when explanatory terms differ.
Keep placeholders visibly marked and never include live tokens or confidential repository endpoints in public examples. Explain which team owns policy changes and which owns evidence generation. If troubleshooting may require privileged logs, tell readers how to request help without uploading secrets.
In editorial QA, ask a colleague unfamiliar with the source language to follow the runbook using safe fixtures. Record where they hesitate. Fix ambiguous nouns and omitted conditions before publication; the quality of translation can be measured by whether readers reach the same decision.
32. The boundaries of a successful verification
A successful SLSA verification supports specific claims about provenance and applicable controls under a chosen trust model. It does not certify the absence of vulnerabilities, prove a supplier cannot be compromised or replace secure development practices. This boundary should be stated plainly at the end of the learning journey.
A useful closing example pairs two checks: verify the build provenance and independently scan or test the built artifact. Both can pass, one can fail, or evidence may be unavailable. The results answer different questions. Presenting them separately helps teams combine protections without overstating any single tool.
Good technical translation is disciplined uncertainty. The writer explains exactly what was checked and exactly what remains unknown. A reader who can make that distinction is better prepared to use provenance evidence responsibly in a real release pipeline.
Frequently asked questions
Is SLSA verification the same as antivirus scanning?
No. SLSA provenance verification concerns the origins, producer identities and production controls of an artifact. Antivirus, vulnerability scanning, code review and testing answer different questions. A successful provenance check does not declare software harmless, and a scanner finding does not automatically disprove authentic provenance. Security teams use these signals together.
Why is a signer requirement important?
Without an expected identity, a correctly signed claim might still come from the wrong actor. The maintained verifier documentation emphasizes identity binding, including builder and VSA verifier relationships. Translate both the literal flag and the reasoning: the consumer needs to know not only that something was signed but by whom under what authority.
What is the difference between build and source provenance?
Build provenance describes how a software artifact was produced. Source provenance describes relevant evidence about the source material and its controls. They may be related but are not interchangeable. A translation should preserve the requested track and its particular checks, rather than naming every attestation ‘build certificate’.
What does a Verification Summary Attestation prove?
It records a verifier’s summary under the evidence and policy used in that verification. Its trust depends on the verifier’s identity, expected signer, relation to the artifact and actual controls evaluated. An arbitrary signed VSA should not be accepted just because the field values look plausible. Treat the summary as a claim with its own provenance.
Why does the same filename sometimes fail verification?
The underlying bytes may differ even when the filename has not changed. Provenance usually binds to a digest or subject identity, so rebuilding or replacing a package can invalidate the relation. Preserve digest values precisely and explain file naming as a convenience rather than a security boundary.
Should command flags be translated?
No. Keep subcommands, options, JSON property names, exact identity references and file paths as executable data. Translate the instructions and explanatory labels around them. Test text copied from the final published site, because typographic transformations can change ASCII hyphens or insert invisible bidirectional marks.
Does PASS always mean release?
No. A pass means the requested checks passed according to the tool and policy involved. Release acceptance may require additional requirements, including vulnerability review, operational controls, licensing, reproducibility or approvals. Document the scope and let the organization’s authorized release policy determine the decision.
How do I troubleshoot a verifier that cannot run?
First inspect the input file, command version, required trust material and error diagnostic. Distinguish environmental failures from verified policy rejections. Do not write a translation that converts ‘could not assess’ into ‘artifact failed security’. Preserve logs safely without publishing credentials or internal repository secrets.
Final review and further learning
Before a translated SLSA guide goes live, confirm the tested tool version, the evidence file format, artifact subject, signer specification, builder or verifier binding, control level, output semantics and handling of errors. Then run safe examples and compare all executable tokens with source. Ask an independent technical reviewer whether the text states a bounded, checkable claim rather than promising generalized software safety.
Primary references: SLSA Verifier maintained project documentation at https://github.com/slsa-framework/verifier and the SLSA specification at https://slsa.dev . Other release attestation tools have their own command interfaces; do not substitute examples from another project without identifying the difference. Strong documentation helps readers decide what an attestation does and does not demonstrate.