aea2905de0f4d1508397833ef1f1e1128833d9c9
3 Commits
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aea2905de0 |
fix(installer): stop it lying, stop it leaking, and make it findable
Nine fixes from a review of the installer against its actual audience: DT leads at sister sites who are not Windows, IIS or Python specialists and who will lean on an AI assistant to get through it. TRUTHFULNESS. The preflight was advisory - an operator read 'IIS is not installed', pressed Next, answered five more pages and the install died partway through with Python already on the box. The results page now blocks while anything is failing, repaints on every run instead of latching after the first, and offers 'Check again' so a fixed problem does not mean starting over. On failure the wizard said 'Nothing was left running', which is false in every path because the stages run with -OnFailure never: it now says the server is part-configured, that re-running is safe, and how to remove it. The final page no longer reads 'ShopDB-Flask is ready' after a failed install. SECRETS. The generated MySQL root password went to Write-Host in a process the wizard runs hidden - so nobody saw it - and stdout is forwarded into the setup log operators are told to send to support, so it was permanently recorded for everyone who did not need it. It now goes to an ACL'd file. Database dumps, which contain every user password hash, landed in a ProgramData directory readable by every user on the box; the directory is now locked at creation. UPGRADES ON REMOTE-DATABASE SITES. mysqldump was looked for only under local MySQL install paths, so a site whose database is on another host silently skipped every pre-upgrade backup - after stage 2 had already stopped the pool and replaced the tree. Find-MysqlTool now prefers a client shipped in the bundle, stage 2 stages it onto the server, preflight reports when it is missing, and mysqlclient\ is an optional locked payload. UNINSTALL. A subpath install is an IIS Application, not a site; removing only the site left the application pointing at a deleted directory, so the parent site - at West Jefferson, the live classic ASP - served 503 on that path forever while Add/Remove Programs reported success. Uninstall now reads MOUNT_PATH and removes the application. The firewall rule was created as "$SiteName $SitePort" and removed as the literal 'ShopDB-Flask 8090', which matches nothing. DAY-2 TOOLING. Every shortcut now passes -AppRoot and -SitePort, and the console forwards them through its own elevation and 32-bit relaunches instead of discarding them - a non-default directory or port made it report a healthy site as broken, from a shortcut the installer wrote. 'Open ShopDB-Flask' resolved to a hardcoded localhost:8090 that was wrong for every subpath install; it now asks the console, which reads the address the installer recorded, and no longer demands administrator to open a browser. SMOKE TEST. The parent-site port lookup filtered for an http binding and defaulted to 80, so an https-only parent site failed a working install with a red dialog. DOCS AND /api/docs. The installer was invisible: nothing in docs/, README.md or CLAUDE.md mentioned it, so a DT lead or their assistant landed on the manual IIS runbook and hand-built the very server the installer then refuses to upgrade. docs/INSTALL-WINDOWS.md and docs/OPERATE-WINDOWS.md are now the canonical route, the two manual runbooks are bannered as reference-only, README and CLAUDE.md route by target, and llms.txt tells an assistant which document to follow and to ask for 'check -Json' before diagnosing. Both ship on the server, along with openapi.json and llms.txt - without those the self-hosted /api/docs was broken on every installed box, which matters most to the sites least able to debug it. Stage 5 now checks it actually serves. shopdb-admin.ps1 gains 'check -Json': one structured, secret-free block covering version, publishing method, IIS state, HTTP reachability, database, Python version, plugins and errors. That is the cheapest useful answer to 'the operator will ask an LLM' - it works with no infrastructure, which a install-time MCP server could not. |
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3606d8d696 |
feat(sbom): ship a CycloneDX bill of materials with every build
An air-gapped site cannot be scanned from anywhere else, so when a CVE lands the only way to answer 'is that component here, and at what version' was to RDP in and go looking. The frontend was the real blind spot: nothing recorded which version of leaflet, dompurify, jspdf or html2canvas ends up inside the compiled SPA. scripts/generate_sbom.py emits CycloneDX 1.6 covering both ecosystems - every pin in requirements.txt with the sha256 the installer enforces, and every package in package-lock.json. Build-only npm packages are marked scope 'excluded' rather than dropped, so 'not here' stays distinguishable from 'not looked for'. Dependency edges are real: uv's '# via' comments give the Python graph and package-lock gives the npm one. Hand-rolled rather than cyclonedx-py plus cyclonedx-npm because both inputs are already pinned and committed - this is a format translation, not a scan - and because the build box may be a work PC with nothing but Python and Node. It is deterministic by construction: same inputs, byte-identical output, so regenerating does not churn. Staged into the application tree by both builders, so it installs onto the server with the app. shopdb-admin.ps1 verify reports it and searches it by component name, which is the question actually being asked. Packages appearing at several depths in package-lock (node_modules/vite and node_modules/vitest/node_modules/vite) are merged, and a copy reachable outside the dev tree makes the component count as shipped. Emitting both produced duplicate bom-refs, which CycloneDX forbids and scanners reject; getting the dev merge backwards would have hidden a shipped package from a CVE search. Not covered by bundle-lock.json on purpose: its provenance is git, not the third-party payload. |
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88af7fd9ce |
feat(installer): lock the third-party payload, and build on Windows without Bash
The bundle carries ~40 wheels, a Python installer and two MSIs. All of them run as SYSTEM on the target server, and nothing verified any of them. A missing wheelhouse printed MISSING and the script still exited 0, so an empty bundle compiled into a shippable installer and the failure surfaced on an air-gapped server with no way to fix it. bundle-lock.json now records that payload exactly - sha256 and byte size per file - and verification is set equality: a missing file, an unexpected extra file, or changed content all fail. Both builders check it and refuse to produce an unverified bundle; the lock ships inside the bundle and shopdb-install.ps1 re-checks it on the server before running any of it. This is deliberately a layer above requirements.txt hashes. pip lists every artifact of a pinned version (cffi 2.1.0 alone has 100 hashes), so it proves a wheel is genuine, not that it is the wheel this bundle was built and tested with; it ignores extra files in the wheelhouse; and it covers none of the executables. refresh-bundle-lock.ps1 regenerates the lock but refuses to overwrite one until the operator has seen the diff, because the commit is the review - it is the only place a change to what runs as SYSTEM becomes visible to a human. build-installer.ps1 is the whole build natively on Windows, so a work PC needs no Bash. It shares the plugin closure resolver with build-site.sh. Both builders now copy the installer scripts from the repository. They were copied from a downloads folder, so the logic that shipped was not the logic that was committed and the build worked on exactly one machine. Two verifiers exist because PowerShell is the only thing guaranteed present on the target server, while the Linux builder should not need pwsh. tests/test_bundle_lock.py runs both against the same fixtures and fails if they disagree. |