ca07d635854ca9393248fa5596bd328696ae386c
4
Commits
| Author | SHA1 | Message | Date | |
|---|---|---|---|---|
 jaap-jan
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ebb88c8ae4 |
Give the phone both pickers, and settle who signs the APK
The files screen could browse a remote and delete on it, and that was all: there is no browsable local filesystem on Android for a second pane to show, so the gesture the desktop is built around — choose on the left, press the arrow — has nothing to stand on. What replaces it is the platform's own two pickers. ADD FILES is ACTION_OPEN_DOCUMENT, so a document is pointed at wherever it lives and goes to the directory showing; SAVE FILE is ACTION_CREATE_DOCUMENT for the selected row. Both stage through the application's cache, and that copy is a requirement rather than a shortcut. android-port.md predicted a picked document would be a third IRemoteFileStore beside SFTP and S3; it cannot be. FileTransferQueue seeks, because an upload resumes from the byte the last attempt reached, and a content:// URI has no path behind it, no length worth trusting, no promised seek and no grant that survives the document being edited underneath it. Copying first costs one class in the head and nothing at all in the shared layers, where the alternative was every resume rule rewritten around a stream that cannot rewind. The copy is deleted when the transfer completes, kept while it is stopped so RESUME still has something to read, and swept at the next launch — which is the one moment emptying that directory is provably safe, since nothing has queued anything yet. Coming out had a decision going in did not: when to ask where it goes. The save picker is raised before the transfer, so the download runs into the same staging directory and hands its bytes to a callback the head supplied, held against the transfer id so a RETRY still lands where the person pointed. Asking afterwards would put the picker minutes from the button that caused it and, on a phone, usually while the application is backgrounded and Android will not show one at all. The cost is that the picker creates its file when it is dismissed, so a download that then fails leaves an empty one there; that is said on the screen, in the README and in the manual checks rather than left to be discovered. A delivery that fails keeps the staged bytes for the sweep instead of throwing away the one copy of something just fetched over somebody's network. The foreground service counts transfers now, which is the half of it that matters most here: a shell survives backgrounding because somebody is looking at it, and an upload has to survive precisely when nobody is. Queued counts as active, so putting five files in and locking the phone moves five files. The seam was built for this and wired to () => 0 because nothing could fill the queue. Alongside it, ADR 0010 answers the second question android-port.md left open, and it had to be answered before the first release rather than at upload time: a new Play app must use App Bundles and therefore Play App Signing, and an installed app can only be updated by a package signed with the same key, so the first release picks an identity for good. The project holds the key, offline and never in CI — the workflow's package step now says so where somebody would break it — and a DodoSSH deployment never serves the client, because a download link on your own server hands the binary that holds the plaintext to the party the whole threat model is about. The README's M1 gap note was stale in both halves and is replaced by what is actually true: credentials have an editor and a REMEMBER tick, and the device key registers into the TPM under a CNG policy that makes the consent dialog a condition of using it. What is left is the floor rather than a gap — no TPM, or no Windows, means the passphrase on every launch. |
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 jaap-janandClaude Opus 5
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ddf0dd6a2b |
Stop the transfer tests depending on which thread ran them first
Every test in TransferQueueingTests failed on the Linux runner with "The calling thread cannot access this object because a different thread owns it", and none of them had anything to do with the commits in that run. The class drained its rows through Dispatcher.UIThread.RunJobs(). That dispatcher is process-wide and belongs to whichever thread touched it first, and xunit runs each test class as its own parallel collection — so the moment a runner scheduled another class onto that thread ahead of this one, all nine died inside DispatcherOperation.Execute having asserted nothing about transfers at all. It passes locally and fails on a machine that schedules differently, which is the whole of why this took a CI run to find. TransfersViewModel now takes the poster it marshals through, defaulting to Dispatcher.UIThread.Post — the seam VaultViewModel's clipboard already is, for the same reason: a view model that reaches a process-wide UI object directly makes every test of it depend on a thread it does not choose. No head passes the parameter, so nothing about the running application changes. The test supplies a queue of its own and drains it, which is the same shape the dispatcher gave it. A poster that ran the action inline was tried first and is wrong: the transfer queue raises Changed from its pump thread as well as from the call that enqueued, so inline execution has a background thread adding rows to an ObservableCollection while the test reads it — it passed once and then failed a different test on the next run. Draining keeps every mutation on the thread doing the asserting, which is the one thing the dispatcher was providing that was worth keeping. One test added for the property that broke: queueing is reachable from any thread and must not care which. The class as a whole guards the seam — remove it and nothing drains, so every assertion about a row fails. Verified by reproducing the failure first: a throwaway probe that touched the dispatcher on one thread and posted and drained on another produced exactly the CI message. Then six consecutive Release runs of the app suite, all green, plus the layout suite, which builds a TransfersViewModel of its own. Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com> |
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jaap-jan
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2caedd93ff |
Merge branch 'main' into the Android head
Main grew the screens the host-management plan called for — hosts, pins, snippets, logs, import, teams — plus the ObjectStore and Import projects behind two of them, and moved WindowsDeviceKeyStore into the desktop head's Platform folder. Five of those view models landed in a directory this branch had already moved, so they join the rest in DodoSSH.Client.Shell: git spotted the rename and put them there, and the namespaces followed. Shell picks up ObjectStore and Import as a result, which the Android head then gets transitively and will use neither of at first — scoped storage means there is no ~/.ssh/config to import, and file transfer is out of its first scope. Desktop suites green at 155 and 64. |
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jaap-jan
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d07b336868 |
Free the terminal from the Hosts screen, and fill the room it left
The WebView sat inside the Hosts grid, so navigating to Files or the keychain hid every open terminal and the strip that named them. A connection you had opened was invisible from four of the five screens. The window now has two surfaces rather than one: a nav rail that says which page you are on, and a terminal strip that is always there and switches the whole content area to a shell. Screen keeps meaning "which page" and never becomes a sixth kind of page, which is why this is two properties instead of one enum with a terminal member in it. Every screen lives inside one wrapper panel that collapses when a terminal is showing. That is not tidiness — the WebView hosts a Win32 child window that composites above everything Avalonia draws, so a screen left visible over its rectangle is a screen sliced in half, and this window has shipped that defect once already. One decision point, IsTerminalShowing, and a nested panel rather than five compound bindings nobody would remember to extend. The focus choreography is the part no test in this repo can see. Every reveal path now focuses in the same turn the WebView appeared, so all three of them post at DispatcherPriority.Loaded and let the native control re-push its bounds first. Going the other way had a real bug: the screen-changed branch called a bare Focus() where it had to release the keyboard from the native child, so switching from a terminal to Files silently ate the first keystrokes. Rare before this commit and the primary gesture after it. The tab strip grew a cross inside each tab, a plus that opens the quick-connect palette, and middle-click close. Nested buttons are correct here: Avalonia handles a left press on the cross and deliberately does not handle other buttons, which is exactly what lets middle-click bubble up from the cross as well as the tab. The test is PointerUpdateKind rather than IsMiddleButtonPressed, because the latter reports button state and is also true for a left press made while the middle button happens to be held. The handler is on the tab and not the strip, so the background closes nothing by construction. Plus opens the palette rather than a flyout, since a menu dropping into the WebView's rectangle may or may not composite above a child HWND and this repo does not make rendering claims it has not photographed. Everything a user reads now says keychain. The wire, the database and the cryptographic spec still say vault, deliberately: renaming those is a migration and a protocol change for a word. That split is written down rather than left to be rediscovered as an inconsistency. Four things that were squeezed into the keychain's category rail, or into nothing at all, now have screens. Pinned host keys get one, with fingerprints never truncated and a filter that matches them, because comparing what you have against what the operator published is the whole workflow; the approved date is read out of the item's UUIDv7 rather than added as a column, and says so, since it means first approval and not last use. Keys can be generated in the client, which needed the openssh-key-v1 container written by hand — there is no BCL or NSec helper, and the PKCS#8 route is unverified in the SSH library this uses. The armour carries no passphrase: encrypting it needs bcrypt_pbkdf, which is Blowfish with a swizzle, in a project whose crypto is otherwise entirely libsodium, for a protection the key's own remarks argue is redundant inside a vault. Generation fills the existing editor and stops, so SAVE stays the one thing that writes. ~/.ssh/config can be imported behind a preview that is ticked per row and writes nothing until the button; IdentityFile records the path and imports the key material only on an explicit opt-in, because reading somebody's private key into a vault is precisely the act this product exists to make deliberate. Match blocks and ProxyJump are reported rather than obeyed — one cannot be evaluated statically and the other has nothing behind it to route with, and a preview that implied otherwise would be worse than one that admits it. Files can be dragged in all four directions that are honestly available. Remote to Explorer does not ship and is not pretended to: the shell wants the bytes during the drop, which needs a virtual file and a native COM data object, outside what Avalonia offers. Note for the next person that Avalonia 12 replaced the drag model outright — DataObject and DataFormats are no-op stubs and IDataObject is not in the reference assembly, so every tutorial written for 11 does not compile here. Hosts can be grouped, flat and never nested. A parent id merged as a scalar lets two offline clients each re-parent A under B and B under A, producing a cycle inside an encrypted payload that no server can police and every reader would have to detect for ever. Membership lives in that payload rather than in the one plaintext concession ADR 0001 allows, whose test is that the relay cannot function without it — nothing on the server reads a group, so what plaintext would hand over is a clustering of the estate for nothing. The plaintext column reserved for it is dropped, provably always null, and the server now refuses a client that sends one; it was never populated, was copied on apply, and was not cleared on delete, so a group id would have outlived the host it described. Snippets insert through xterm rather than through the pump, because xterm is the only thing that knows whether the remote has bracketed paste on, and that is what makes a shell treat embedded newlines as text instead of as execute. The host process moves opaque bytes and never parses output, so it would have to guess, and guessing wrong runs every line. Running is off by default and the copy says the text goes into whatever is there — the terminal has no notion of being at a prompt, and may be in vi or at a password prompt with echo off, so the Enter the user presses themselves is the entire safety property. Connections and keychain changes are recorded as synced encrypted items, which is what makes them auditable by a team later and costs the server knowledge of connection rate and timing from row counts alone. ADR 0001 already concedes it cannot hide that class of metadata; the trade is now written into it rather than left implicit. A connection entry is written once, at close, which is what makes a synced log tractable: nothing to merge, one outbox row, no chance of colliding with itself. Live sessions come from memory, not from the log. The write is void by contract and posts to a bounded channel, because putting an encrypt-and-write on the teardown path of every session is how closing the application comes to take four seconds. A ticket opened before a lock still closes afterwards, since a shell outlives the vault. The activity log hooks the one generic repository every kind writes through, so it cannot miss a caller — which is also why the log kinds themselves declare they are not audited, or the first entry would write an entry about writing an entry. It records the names of the fields that changed and never their values; a log with an old password in it would be a plaintext credential store with no vault around it. Retention is 90 days or 5,000 entries, whichever bites first, pruned on the sync loop rather than on a second timer. That log traffic then broke the status line, which is worth recording because the fix is a shape and not a patch: background sync counted its own log rows as pushed items, so the quiet rule stopped being quiet and every action's message was overwritten a second later by a sync report. The report now separates log rows from user items and the rule reads the latter. S3 buckets appear as a remote in the file browser, behind the same interface an SFTP session implements, so the queue and both panes did not have to learn what they are talking to. Uploads go through a pipe, because the queue wants to write and the SDK wants to read; memory is then bounded by the part size instead of buffering a file to disk twice. Finally, the Windows device key store moved out of the session project, which was the one thing keeping it from being portable — everything else in it is platform-neutral, and a Windows CNG dependency in the middle of the vault code meant a second head could not reference it without dragging Windows along. The seam that made the move free was already there. docs/android-port.md is the audit behind that: what ports, what does not, in order of cost, the four decisions taken, and an inventory of every screen and state the interface has to carry, written so a design can be made from it directly. dotnet build, dotnet test and dotnet format --verify-no-changes are all clean: 1240 tests at zero warnings, including the end-to-end suite against real containers. The manual checks that headless Avalonia cannot make — the drag from Explorer, a generated key against a real host, twelve tabs at the minimum window width — are listed in docs/manual-checks.md and are still outstanding. |