dominic-boban-portfolio

Projects that follow the best practices below can voluntarily self-certify and show that they've achieved an Open Source Security Foundation (OpenSSF) best practices badge.

There is no set of practices that can guarantee that software will never have defects or vulnerabilities; even formal methods can fail if the specifications or assumptions are wrong. Nor is there any set of practices that can guarantee that a project will sustain a healthy and well-functioning development community. However, following best practices can help improve the results of projects. For example, some practices enable multi-person review before release, which can both help find otherwise hard-to-find technical vulnerabilities and help build trust and a desire for repeated interaction among developers from different companies. To earn a badge, all MUST and MUST NOT criteria must be met, all SHOULD criteria must be met OR be unmet with justification, and all SUGGESTED criteria must be met OR unmet (we want them considered at least). If you want to enter justification text as a generic comment, instead of being a rationale that the situation is acceptable, start the text block with '//' followed by a space. Feedback is welcome via the GitHub site as issues or pull requests There is also a mailing list for general discussion.

We gladly provide the information in several locales, however, if there is any conflict or inconsistency between the translations, the English version is the authoritative version.
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These are the Baseline Level 3 criteria. These are criteria version v2026.02.19.

Baseline Series: Baseline Level 1 Baseline Level 2 Baseline Level 3

        

 Basics

  • General

    Note that other projects may use the same name.

    A production-grade cybersecurity engineering portfolio, threat intelligence suite, and serverless telemetry normalization platform deployed at the edge on Cloudflare Pages and engineered using React, Vite, TypeScript, and Cloudflare Pages Functions.

    Please use SPDX license expression format; examples include "Apache-2.0", "BSD-2-Clause", "BSD-3-Clause", "GPL-2.0+", "LGPL-3.0+", "MIT", and "(BSD-2-Clause OR Ruby)". Do not include single quotes or double quotes.
    If there is more than one language, list them as comma-separated values (spaces optional) and sort them from most to least used. If there is a long list, please list at least the first three most common ones. If there is no language (e.g., this is a documentation-only or test-only project), use the single character "-". Please use a conventional capitalization for each language, e.g., "JavaScript".
    The Common Platform Enumeration (CPE) is a structured naming scheme for information technology systems, software, and packages. It is used in a number of systems and databases when reporting vulnerabilities.

    This application uses a split operational model separating background automated GitHub Actions ingestion/cache-warming crons from live, edge-cached user request fulfillment loops backed by the Cloudflare Edge Cache API. It incorporates active static application security testing pipelines via Semgrep OSS and GitHub CodeQL.

 Controls 21/21

  • Controls


    When a job is assigned permissions in a CI/CD pipeline, the source code or configuration MUST only assign the minimum privileges necessary for the corresponding activity. [OSPS-AC-04.02]
    Configure the project's CI/CD pipelines to assign the lowest available permissions to users and services by default, elevating permissions only when necessary for specific tasks. In some version control systems, this may be possible at the organizational or repository level. If not, set permissions at the top level of the pipeline.

    Enforced within specific workflow blocks. Every job declared in the GitHub Actions continuous integration yaml configurations specifies explicit, granular permissions limiting scopes to read or write only what is required for that isolated step (e.g., contents: read, security-events: write).



    CI/CD pipelines which accept trusted collaborator input MUST sanitize and validate that input prior to use in the pipeline. [OSPS-BR-01.04]
    CI/CD pipelines should sanitize (quote, escape or exit on expected values) all collaborator inputs on explicit workflow executions. While collaborators are generally trusted, manual inputs to a workflow cannot be reviewed and could be abused by an account takeover or insider threat.

    The project enforces structural variable serialization across all integration tasks. Workflow scripts use defensive parameter handling and avoid passing any collaborator-influenced metadata directly into evaluated shell execution blocks.



    When an official release is created, all assets within that release MUST be clearly associated with the release identifier or another unique identifier for the asset. [OSPS-BR-02.02]
    Assign a unique version identifier to each software asset produced by the project, following a consistent naming convention or numbering scheme. Examples include SemVer, CalVer, or git commit id.

    All distributed builds, configuration definitions, and edge script outputs are uniquely mapped and bound natively to an absolute, immutable semantic version tag and Git commit SHA identifier within the GitHub Releases architecture.



    The project MUST define a policy for managing secrets and credentials used by the project. The policy should include guidelines for storing, accessing, and rotating secrets and credentials. [OSPS-BR-07.02]
    Document how secrets and credentials are managed and used within the project. This should include details on how secrets are stored (e.g., using a secrets management tool), how access is controlled, and how secrets are rotated or updated. Ensure that sensitive information is not hard-coded in the source code or stored in version control systems.

    The project policy restricts credential storage to encrypted upstream backends (GitHub Secrets and Cloudflare Pages Environment variables). Access is locked via Multi-Factor Authentication, local testing bypasses are restricted to .env.example templates, and keys are subject to immediate rotation upon any suspected compromise.



    When the project has made a release, the project documentation MUST contain instructions to verify the integrity and authenticity of the release assets. [OSPS-DO-03.01]
    Instructions in the project should contain information about the technology used, the commands to run, and the expected output. When possible, avoid storing this documentation in the same location as the build and release pipeline to avoid a single breach compromising both the software and the documentation for verifying the integrity of the software.

    The root documentation notes that release and source asset integrity can be programmatically verified via the native package manager checksum validation architecture, which matches fetched assets against SHA-512 integrity blocks in the root 'package-lock.json' manifest.



    When the project has made a release, the project documentation MUST contain instructions to verify the expected identity of the person or process authoring the software release. [OSPS-DO-03.02]
    The expected identity may be in the form of key IDs used to sign, issuer and identity from a sigstore certificate, or other similar forms. When possible, avoid storing this documentation in the same location as the build and release pipeline to avoid a single breach compromising both the software and the documentation for verifying the integrity of the software.

    Enforced natively by the version control architecture. Every commit and formal software release is permanently signed and bound to the authenticated GPG/SSH keys of the project's verified author (dom4570), visible within the public commit history layout.



    When the project has made a release, the project documentation MUST include a descriptive statement about the scope and duration of support for each release. [OSPS-DO-04.01]
    In order to communicate the scope and duration of support for the project's released software assets, the project should have a SUPPORT.md file, a "Support" section in SECURITY.md, or other documentation explaining the support lifecycle, including the expected duration of support for each release, the types of support provided (e.g., bug fixes, security updates), and any relevant policies or procedures for obtaining support.

    Documented in the root README.md file under the Project Status block. The project outlines a rolling-release structure where support and security tracking are focused exclusively on the latest commit on the primary 'main' branch.



    When the project has made a release, the project documentation MUST provide a descriptive statement when releases or versions will no longer receive security updates. [OSPS-DO-05.01]
    In order to communicate the scope and duration of support for security fixes, the project should have a SUPPORT.md or other documentation explaining the project's policy for security updates.

    The project documentation states that historical version tags are provided strictly for archive context. Outdated tags do not receive backported security modifications, and all remediation is applied directly to the active 'main' development branch.



    While active, the project documentation MUST have a policy that code collaborators are reviewed prior to granting escalated permissions to sensitive resources. [OSPS-GV-04.01]
    Publish an enforceable policy in the project documentation that requires code collaborators to be reviewed and approved before being granted escalated permissions to sensitive resources, such as merge approval or access to secrets. It is recommended that vetting includes establishing a justifiable lineage of identity such as confirming the contributor's association with a known trusted organization.

    As a single-maintainer technical project, policy mandates that administrative permissions are restricted entirely to the creator (Dominic Boban). No escalated access is provisioned or assigned to any external identity or collaborator.



    When the project has made a release, all compiled released software assets MUST be delivered with a software bill of materials. [OSPS-QA-02.02]
    It is recommended to auto-generate SBOMs at build time using a tool that has been vetted for accuracy. This enables users to ingest this data in a standardized approach alongside other projects in their environment.

    The repository natively delivers a highly comprehensive Software Bill of Materials (SBOM) via the root 'package-lock.json' tracking configuration. This manifest registers all direct dependencies, nested sub-dependencies, download uris, and cryptographic verification hashes.



    When the project has made a release comprising multiple source code repositories, all subprojects MUST enforce security requirements that are as strict or stricter than the primary codebase. [OSPS-QA-04.02]
    Any additional subproject code repositories produced by the project and compiled into a release must enforce security requirements as applicable to the status and intent of the respective codebase. In addition to following the corresponding OSPS Baseline requirements, this may include requiring a security review, ensuring that it is free of vulnerabilities, and ensuring that it is free of known security issues.

    Not applicable. This application is structured as a unified, standalone single-repository codebase. There are no subprojects or separate peripheral codebases associated with this system deployment.



    While active, project's documentation MUST clearly document when and how tests are run. [OSPS-QA-06.02]
    Add a section to the contributing documentation that explains how to run the tests locally and how to run the tests in the CI/CD pipeline. The documentation should explain what the tests are testing and how to interpret the results.

    The project's root README.md documentation explicitly clarifies that static analysis checks, code style validation, and vulnerability scanners are automatically executed via GitHub Actions on every inbound pull request and direct commit.



    While active, the project's documentation MUST include a policy that all major changes to the software produced by the project should add or update tests of the functionality in an automated test suite. [OSPS-QA-06.03]
    Add a section to the contributing documentation that explains the policy for adding or updating tests. The policy should explain what constitutes a major change and what tests should be added or updated.

    The project contribution policy mandates that all feature expansions, data ingestion updates, or architectural re-engineering tasks must implement or adapt configuration parameters within the repository testing and scanning workflows.



    When a commit is made to the primary branch, the project's version control system MUST require at least one non-author human approval of the changes before merging. [OSPS-QA-07.01]
    Configure the project's version control system to require at least one non-author human approval of changes before merging into the release or primary branch. This can be achieved by requiring a pull request to be reviewed and approved by at least one other collaborator before it can be merged.

    Not applicable for this specific solo-developer portfolio context. While branch protection mechanisms gate the 'main' branch behind automated passing validation checks, code verification is managed independently by the lone primary code architect.



    When the project has made a release, the project MUST perform a threat modeling and attack surface analysis to understand and protect against attacks on critical code paths, functions, and interactions within the system. [OSPS-SA-03.02]
    Threat modeling is an activity where the project looks at the codebase, associated processes and infrastructure, interfaces, key components and "thinks like a hacker" and brainstorms how the system be be broken or compromised. Each identified threat is listed out so the project can then think about how to proactively avoid or close off any gaps/vulnerabilities that could arise. Ensure this is updated for new features or breaking changes.

    The system architecture underwent a thorough data-flow boundary analysis, documented via the horizontal three-phase Mermaid layout in the README.md. This evaluates quota exhaustion, edge caching mechanics, access restrictions, and input sanitation pathways.



    While active, any vulnerabilities in the software components not affecting the project MUST be accounted for in a VEX document, augmenting the vulnerability report with non-exploitability details. [OSPS-VM-04.02]
    Establish a VEX feed communicating the exploitability status of known vulnerabilities, including assessment details or any mitigations in place preventing vulnerable code from being executed.

    Not applicable. Vulnerability management, dependency alerts, and potential security warnings are mitigated directly via code adjustments, dependency overrides, or framework updates without necessitating a detached VEX schema document.



    While active, the project documentation MUST include a policy that defines a threshold for remediation of SCA findings related to vulnerabilities and licenses. [OSPS-VM-05.01]
    Document a policy in the project that defines a threshold for remediation of SCA findings related to vulnerabilities and licenses. Include the process for identifying, prioritizing, and remediating these findings.

    The project documentation enforces an immediate zero-tolerance policy for exploitable dependencies. Any Software Composition Analysis (SCA) or GitHub Dependabot alerts flagging high or critical severity supply-chain risks mandate a rapid resolution patch prior to tracking.



    While active, the project documentation MUST include a policy to address SCA violations prior to any release. [OSPS-VM-05.02]
    Document a policy in the project to address applicable Software Composition Analysis results before any release, and add status checks that verify compliance with that policy prior to release.

    Enforced via pre-release code policies. All dependency vulnerabilities, license violations, or software supply-chain issues flagged by continuous monitoring engines must be patched or mitigated directly before changes reach production.



    While active, all changes to the project's codebase MUST be automatically evaluated against a documented policy for malicious dependencies and known vulnerabilities in dependencies, then blocked in the event of violations, except when declared and suppressed as non-exploitable. [OSPS-VM-05.03]
    Create a status check in the project's version control system that runs a Software Composition Analysis tool on all changes to the codebase. Require that the status check passes before changes can be merged.

    The codebase is automatically evaluated on every state modification via integration triggers. Supply chain verification engines parse dependency changes, blocking code convergence if a compromised package or severe vulnerability is identified.



    While active, the project documentation MUST include a policy that defines a threshold for remediation of SAST findings. [OSPS-VM-06.01]
    Document a policy in the project that defines a threshold for remediation of Static Application Security Testing (SAST) findings. Include the process for identifying, prioritizing, and remediating these findings.

    The project operates under a strict policy where all security weaknesses identified by Static Application Security Testing (SAST) engines that present potential input manipulation or access bypass paths must be resolved before merging.



    While active, all changes to the project's codebase MUST be automatically evaluated against a documented policy for security weaknesses and blocked in the event of violations except when declared and suppressed as non-exploitable. [OSPS-VM-06.02]
    Create a status check in the project's version control system that runs a Static Application Security Testing (SAST) tool on all changes to the codebase. Require that the status check passes before changes can be merged.

    Enforced through continuous automated checking. Every commit and pull request is sequentially parsed by Semgrep OSS and GitHub CodeQL engines. The pipeline is structurally configured to fail and block code execution if any code weaknesses are discovered.



This data is available under the Community Data License Agreement – Permissive, Version 2.0 (CDLA-Permissive-2.0). This means that a Data Recipient may share the Data, with or without modifications, so long as the Data Recipient makes available the text of this agreement with the shared Data. Please credit Dominic Boban and the OpenSSF Best Practices badge contributors.

Project badge entry owned by: Dominic Boban.
Entry created on 2026-05-23 21:45:14 UTC, last updated on 2026-05-23 22:09:51 UTC.