CipherScan Overview

CipherScan overview

CipherScan is best understood from the evidence surfaces recorded in its approved product registry rather than from a broader assumption about cryptographic discovery tooling. The demonstrated surfaces cover observations that are openly visible on public websites, authenticated scanning of GitLab repositories, API-based inventory workflows for specified cloud environments, and a public open-source repository demonstration. Together, these surfaces organize different kinds of cryptographic evidence for subsequent review. The registry records each of these capabilities as demonstrated.1

The workflow also provides two important forms of context and organization. Repository findings can identify the repository file and line number associated with a detected cryptographic signal. Supported cryptographic findings are normalized into a cryptographic bill of materials, or CBOM, for review and migration prioritization. Those outputs help connect an observation to a location and then organize supported findings for decision-making, without implying that every possible cryptographic dependency has been discovered or that remediation is performed automatically.1

Supported evidence surfaces and availability

The demonstrated evidence surfaces differ in what they observe and how their evidence is obtained. The public website scanner is an external observation surface. The GitLab workflow is an authenticated repository-scanning surface with two stated scan modes. The cloud workflows are API-based inventory workflows for three named infrastructure providers. The open-source repository capability is described as a public demonstration with a specific temporary-clone behavior. No broader provider list, repository platform list, coverage statement, or performance measurement is established by the approved facts.1

### Public website inspection The public website scanner examines openly observable TLS negotiation and certificate metadata. This defines the boundary of the demonstrated website observation: it concerns information visible through the public website’s TLS interaction and certificate presentation. The approved fact explicitly states that the scanner does not access private application data. Accordingly, this surface should be described as an externally observable TLS and certificate inspection capability, not as an inspection of internal application code, private records, or other private application content.1

### Authenticated GitLab repository scanning The approved registry records an authenticated GitLab repository scanning workflow with two named scan forms: bounded quick scans and full-tree deep scans. The distinction establishes that the demonstrated workflow can be organized around a bounded scan or a deeper full-tree scan. The evidence does not specify scan duration, scheduling, repository size limits, branch behavior, authentication mechanism, detection coverage, or performance. Those details should therefore be confirmed separately rather than inferred from the names of the scan modes.1

### API-based cloud inventory The approved facts include API-based cloud inventory workflows for AWS, Azure, and DigitalOcean infrastructure. This identifies the three named infrastructure environments for which the workflow is demonstrated. It does not establish that every service, account, subscription, project, region, workload, or cryptographic dependency in those environments is inventoried. It also does not establish additional cloud providers or a particular credential, permission, deployment, or scheduling model.1

### Public open-source repository demonstration The public open-source repository demo has a specifically bounded sequence. It scans a temporary shallow clone, applies rule-based detection for classical and post-quantum cryptographic signals, and then deletes the clone. The temporary-clone and deletion behavior are part of the approved description of that demonstration. The fact does not establish that the demonstration represents all repository-scanning modes, all source-control systems, all cryptographic constructs, or a production retention policy.1

How the demonstrated workflow is organized

The approved pilot representation organizes the workflow into four conceptual activities: select an approved discovery surface, gather permitted observations, structure the evidence and its context, and review findings and next steps. This is a way to understand how the demonstrated capabilities fit together. It is not a claim that every deployment uses the same sequence, that every possible asset is covered, or that the process performs autonomous remediation.1

1. Select the relevant permitted surface. Depending on the approved scope, the evidence may come from openly observable public website TLS and certificate data, an authenticated GitLab repository workflow, an API-based inventory workflow for AWS, Azure, or DigitalOcean infrastructure, or the public open-source repository demonstration.
2. Collect observations according to the bounded behavior of that surface. Public website inspection remains limited to openly observable TLS negotiation and certificate metadata. Repository demonstrations and scans operate on the repository evidence described by their respective approved facts.
3. Organize evidence and context. For repository findings, the available context can include the repository file and line number associated with a detected cryptographic signal. Supported cryptographic findings can also be normalized into a CBOM.
4. Review findings and next steps. The CBOM is identified as an output for review and migration prioritization. The workflow representation does not claim that the system automatically selects or executes remediation.

This organization also clarifies why the evidence surfaces should not be treated as interchangeable. A public website observation concerns externally visible TLS negotiation and certificate metadata. A repository scan concerns signals detected in repository content and can provide file-and-line context. A cloud inventory workflow concerns API-based infrastructure inventory for the named providers. The public open-source demo is a separate demonstration with shallow-clone and deletion behavior. The approved facts support bringing these observations into a review process, but they do not provide a claim of uniform coverage across all surfaces.1

Findings, context, and review outputs

The approved outputs address two different review needs: locating a repository signal and organizing supported cryptographic findings. For repository findings, CipherScan can identify the repository file and line number associated with a detected cryptographic signal. That context can make a finding more actionable for a reviewer because it identifies where the signal was associated with repository content. The approved fact does not state that a file and line number are available for every possible source, every type of finding, or every evidence surface.1

CBOM normalization is the approved organizing outcome for supported cryptographic findings. In this overview, that statement should be read narrowly: the registry says that supported findings are normalized into a CBOM for review and migration prioritization. It does not define a CBOM schema, enumerate its fields, state an export format, describe update behavior, or promise that every observation from every surface is represented. Those implementation and coverage details are outside the cited evidence.1

Limitations and registry status

This overview is bounded by the reviewer-approved facts in registry cipherscan-pilot-2026-07-22-v1. The evidence pack states that its facts were approved in that registry and that availability states must be re-reviewed when the product registry changes. The descriptions in this article therefore represent the approved evidence boundary for this version, not an unrestricted or permanent product specification.

• The public website scanner is described only for openly observable TLS negotiation and certificate metadata. The approved fact explicitly excludes access to private application data.
• The GitLab capability is described as an authenticated workflow with bounded quick scans and full-tree deep scans. The cited evidence does not specify additional repository platforms, scan schedules, performance, coverage, or deployment details.
• The cloud capability is limited in this evidence to API-based inventory workflows for AWS, Azure, and DigitalOcean infrastructure. The cited evidence does not establish broader provider or service coverage.
• The public open-source repository capability is a demonstration with a temporary shallow clone, rule-based classical and post-quantum signal detection, and clone deletion. The evidence does not establish that this behavior describes every repository workflow.
• File-and-line context is stated for repository findings that can identify the associated location. The evidence does not state that this context is universal for all findings or all surfaces.
• CBOM normalization is stated for supported cryptographic findings. The evidence does not define the complete set of supported findings or establish a particular CBOM schema or export behavior.
• Every listed capability has the availability state demonstrated. That state must be re-reviewed when the product registry changes.

The evidence does not support claims about complete cryptographic discovery, continuous operation, autonomous remediation, comparative performance, deployment models, roadmap commitments, or integrations beyond the named surfaces. These are not necessarily statements that such capabilities do not exist; they are boundaries on what this approved evidence pack establishes. Readers evaluating a particular environment should treat the named surfaces and outputs as the starting point for validation against the applicable product registry and review requirements.

Conclusion

CipherScan’s approved demonstrated scope includes public TLS and certificate inspection, authenticated GitLab repository scanning, API-based inventory workflows for AWS, Azure, and DigitalOcean, and a bounded public open-source repository demo. Repository findings can include file-and-line context, while supported cryptographic findings can be normalized into a CBOM for review and migration prioritization. The correct interpretation is deliberately limited: these are demonstrated evidence surfaces and outputs in the approved registry, not evidence of complete discovery, autonomous remediation, or capabilities beyond the stated facts.1