Add a 'Numérotation auto' tab to the global settings page (Settings >
Nouveau projet) where users can define default auto-numbering rules
for Conducteurs, Eléments, and Folios. These rules are automatically
transferred to every new project created.
Changes:
- Add NumerotationContext::saveToSettings()/loadFromSettings() static
helpers for persisting named numerotation contexts via QSettings
- Add 'Numérotation auto' tab to NewDiagramPage with three sub-tabs
using SelectAutonumW widgets (same UI as project properties)
- Add save/remove/persist slots for conductor, element, and folio
contexts with immediate QSettings persistence on every change
- NewDiagramPage::applyConf() saves autonum settings when editing
global defaults (no project)
- QETProject constructor loads global autonum settings from QSettings
for new empty projects
QETProject::m_uuid was created in the constructor and never written, so
a project got a new uuid every time it was opened. Inside a running
instance it is only used to name the SQLite connection, but nothing
outside the instance could tell which project a file belongs to.
Motivation
A .qet file is increasingly handled by tools outside QElectroTech: Git
repositories on GitHub or GitLab, cloud storage, key-value stores,
per-project locks. All of them need a stable key for "this project":
- The file name and path are not stable: files get renamed, moved,
checked out in different places.
- The project title is user-editable and not unique.
- Folio uuids (persisted separately) are only unique within their
project; keying folios globally needs a project identifier as well,
e.g. projects/{projectUuid}/folios/{folioUuid}.
Change
Write the uuid as an attribute of <project> and restore it in
QETProject::openFile(), right after parsing and before the project is
built from the XML. Older versions ignore the attribute, so files stay
readable in both directions.
The project database is not affected: it takes its connection name
from the uuid created at construction (m_uuid is declared before
m_data_base), before the file is read. Two open projects carrying the
same persisted uuid therefore still get distinct connections.
Files without a uuid: why not a random one
Keeping the random uuid created by the constructor and saving it
conflicts with #754 / #779: saving an unmodified project must give the
same bytes every time. Every example project predates the attribute.
Measured on the 24 example projects (resaved 3x each from the same
original, QT_HASH_SEED=0 so that QDom's attribute order is stable,
isolated HOME per run):
upstream master 23/24 byte-identical
persist, random uuid 0/24
persist, derived uuid (this) 23/24
The remaining project, schema_indus.qet, differs only in element uuids,
the known residual #779 leaves for elements; its project uuid is
stable.
Instead, a project file without a uuid gets a name-based (version 5)
uuid derived from the raw content of the file:
QUuid::createUuidV5(<fixed QET project namespace>,
"qet-project-legacy\n" + file content without CR)
- The same file always yields the same uuid, so resaving an unmodified
legacy project stays reproducible.
- Different projects practically never share a uuid, because any
difference in content gives a different one. This is unlike folios,
where only data such as title and position could be used; the raw
file bytes are stable input for the whole project.
- Carriage returns are dropped before hashing. QFile's Text mode already
strips them on Windows but not elsewhere, and git's autocrlf can
change them on checkout; either way the uuid is the same on every
platform.
- The uuid is derived once, at load time, and saved from then on. After
that it is read, never recomputed: renaming the project, editing it
or changing it in the same session as the migration does not change
it.
- Two people opening the same legacy file on different branches get the
same project uuid.
The namespace uuid is fixed in the code and must never change, or every
legacy project would get a different uuid.
Known limitations, open for discussion
- Copies share the uuid. Two byte-identical legacy files get the same
uuid (examples/cablage-eclairages_sikli-v5.qet and
câblage-éclairages-sikli-v5.qet are such a pair), and so does a
migrated file copied in the file manager or saved with "Save as".
That is what identity means for a copy, and the same happens with Git,
but a tool that treats the uuid as globally unique has to cope with
it. Regenerating the uuid on "Save as" could be a follow-up, if that
is the preferred behaviour.
- A legacy file that differs from another only in formatting (e.g.
re-indented) gets a different uuid. The two sides of a merge only
agree if they started from the same bytes, which is the normal case.
Tests (Qt 6.4, offscreen, qelectrotech --resave / --set-titleblock /
--info)
- 24 example projects, 3 resaves each from the same original: results
above; the project uuid is identical across runs. All 24 uuids are
distinct, except the byte-identical pair mentioned above.
- Resaving an already migrated file is byte-identical to the first
output.
- The same legacy file with CRLF line endings gets the same uuid as
with LF.
- Changing the project title in a migrated file keeps its uuid.
- Migrating and modifying in the same run (--set-titleblock on a legacy
file) gives the same uuid as a plain resave.
- Re-indenting a legacy file gives a different uuid (expected).
- A migrated file opened with upstream master loads normally; the
attribute is ignored and dropped on save.
- --info on a migrated file still works.
Refs #754, #779
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01BDyt4txaott5JyPNGQaeVp
Fifth site of the hash-ordering defect fixed in #844.
TitleBlockTemplatesProjectCollection::templates() returns
titleblock_templates_xml_.keys(), a QHash, and QETProject::toXml() iterated
it directly. A project embedding more than one template therefore wrote the
<titleblocktemplate> children in a different order on every save.
examples/affuteuse_250h.qet embeds three -- A4_1, DIN_A4 and DIN_A4_copy --
and two saves of it produced "DIN_A4 A4_1 DIN_A4_copy" and
"DIN_A4_copy A4_1 DIN_A4". It was the last of the two projects #844 could not
make reproducible.
Worth recording because the first reading of that diff was wrong: seeing
name="DIN_A4" on one side and name="DIN_A4_copy" on the other looked like the
save path renaming a template, which would have been far more serious -- a
diagram referring to it by name would have been left dangling. The file
simply contains both, and they had swapped places.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Same defect as the <xref> ordering fixed in the previous commit, in the same
function and left behind by it: conductorAutoNum(), folioAutoNum() and
elementAutoNum() are QHash, whose key order is randomised per process, and
all three were iterated directly. A project holding more than one scheme in
any of the three categories therefore wrote those children in a different
order on every save, so opening and saving without an edit produced a file
that differed from the original, and differed again next time.
Three of the shipped examples are affected: Projet_vierge.qet has 8 conductor
schemes, industrial.qet has 4 element and 2 folio schemes, and
tableau_domestique.qet has 2 element schemes.
Sorting the key list is the same remedy already applied to the xrefs, and
changes nothing else: the same children are written, with the same contents.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
QETProject::toXml() iterated defaultXRefProperties().keys() straight into
the document. That is a QHash, and Qt randomises hash iteration order per
process, so every save wrote the <xref> children in a different sequence.
Saving an unchanged project therefore produced a different file each
time. The content was identical -- same size, same elements -- but the
order moved, so version control showed spurious changes on every save and
comparing two saved files showed differences that were not there.
Sorting the keys before writing makes a save reproducible. This is the
same class of problem, and the same fix, as the sort already applied to
Diagram::toXml()'s <elements> and <conductors> blocks.
Measured with tests/determinism (resave twice, compare):
before: I1 idempotent save 0/23
after: I1 idempotent save 5/23
with ArduinoLCD, ShellyParts, convertisseur, schema_indus and
schema_unifilaire_voltaique2 newly reproducible, and no regressions
against the baseline.
Not the only remaining source of save instability -- the other 18
projects still fail I1 for other reasons. This fixes the hash-ordering
source only.
Note this is not a Qt6 regression. The Qt5 build happened to produce a
favourable hash order for four projects and Qt6 does not, but both were
writing an unspecified order; only the dice changed.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Destroying a project cost more than loading it: on a 1000 folio project
--info reported its work done in 160 s but the process ran for 657 s, and
the difference was ~QETProject().
Timing each destructor puts 94 % of that teardown in
~QetGraphicsTableItem(), with the cost per table doubling as the project
grows (48 ms at 100 folios, 122 ms at 250). The database's own per-element
deletes are 1 % of it and linear; element and conductor teardown is linear.
A table destructor repairs the chain it belonged to, which relinks the
neighbouring tables, which assigns a model -- and one branch of
setPreviousTable() builds a fresh ProjectDBModel, whose copy constructor
calls setQuery(), which rebuilds the whole database. Destroying a 250 folio
project did that 12 times, for a project that is being thrown away.
So block the rebuild for the lifetime of the destructor, next to the
blockSignals(true) already there for the same reason. Nothing can observe
the result: the database is destroyed moments later as a member of the
project. Teardown drops about fivefold at every size measured -- 1.30 s to
0.26 s at 100 folios, 7.75 s to 1.73 s at 250, 19.92 s to 4.02 s at 400 --
and the number of full rebuilds in a run stops growing with project size.
Teardown is still superlinear, now dominated by
QetGraphicsTableItem::setUpColumnAndRowMinimumSize() measuring every cell of
the nomenclature each time a chain is relinked. That is left alone here.
--info stays byte identical on all 23 example projects, as do --export-bom,
--export-wires, --export-cables, --export-nets and --export-wiring.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01L6MRq2Ach1ogvnGcbuqNLr
ProjectDBModel::setQuery() calls projectDataBase::updateDB(), which drops
and repopulates every table in the database. The rebuild does not depend on
the query, so each table model that queries the database while a project is
being read triggers another complete repopulate of the same content.
Opening a 100 folio project ran updateDB() 26 times, 9.9 s of a 15.7 s load.
Two changes, because the first alone is not enough:
setUpdateBlocked() lets a bulk operation suppress the rebuild and do it
once when it is done. readProjectXml() already wrapped the load in
blockSignals(true) "to avoid hundreds of unnecessary emitted signal", but
that suppresses only the signal, not the work it announces; this extends
the same intent to the work. Both early returns in readProjectXml() sit
before the block, so no path leaves the database permanently blocked.
Further rebuilds are triggered after readProjectXml() returns, where the
load phase timers cannot see them -- with only the block in place
updateDB() still ran 5 times on examples/industrial.qet. So the database
now also tracks whether anything has changed since the last rebuild, and
skips repopulating when nothing has. dataBaseUpdated() is still emitted in
that case: callers and models rely on it to refresh, and what they read
back is the same either way. Every method of the class that writes rows
marks the flag; from outside, the database is reachable only through
newQuery(), and all five call sites read.
Repeating the rebuild was wasteful rather than wrong -- each
populate*Table() begins with a DELETE -- so this changes no output.
Verified byte identical --info on all 23 example projects, and identical
--export-bom, --export-wires, --export-cables, --export-nets and
--export-wiring on industrial.qet. Its load drops from 5.51 s to 5.31 s
(median of 6).
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01L6MRq2Ach1ogvnGcbuqNLr
QETProject::removeDiagram() detaches a diagram from m_diagrams_list and
schedules it via deleteLater(), but that deferred delete only runs on
a future event-loop iteration. If ~QETProject() runs first (e.g. a
CLI/headless caller with no event loop, or a project closed
immediately after removeDiagram()), the diagram is still a QObject
child of the project and gets destroyed later by QObject's own
automatic child cleanup -- which runs after m_data_base has already
been torn down as a plain C++ member. Diagram::~Diagram() calls back
into dataBase()->removeElement() for each of its elements, so that
ordering is a use-after-free (SIGSEGV in QSqlResult::exec()).
Delete any such still-parented diagrams synchronously in ~QETProject()
while m_data_base is still alive, before the base QObject destructor
runs. Any deleteLater() event that does eventually fire afterward is a
safe no-op on an already-deleted QObject.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
The "Système de contacts modifié" warning in QETProject::addElement()'s
Erase branch called QMessageBox::warning directly, bypassing
QET::QetMessageBox and so the non-interactive guard. It is reachable
during a load, which is exactly the path this PR exists to unblock, so it
could still hang a headless run.
Behaviour is unchanged interactively, and unattended it now answers with
the Yes the call site already passes as its default -- the same "continue"
the previous code took.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
Reported by @scorpio810 on #626: "The field does not update automatically;
you need to list the other rules for it to update."
Two reasons, both mine:
The refresh was wired to the combo boxes' activated() signal, which Qt
emits only for user interaction. Nothing that changed a context
programmatically -- which is to say, numbering an element -- ever reached
it. Re-picking a rule from the combo was not a workaround so much as the
only code path that refreshed at all.
And there was no signal to hang it on for two of the three categories:
addElementAutoNum() emitted elementAutoNumAdded(), but addConductorAutoNum()
and addFolioAutoNum() emitted nothing, so even a listener would not have
heard a conductor counter advance.
Add QETProject::autoNumContextUpdated(), emitted by all three setters, and
have the dock re-read its three fields on it. Kept deliberately separate
from the existing *AutoNumAdded/*Removed signals: those make listeners
rebuild their rule lists, which is both heavier than needed here and would
disturb the user's current selection every time an element is numbered.
This one only says "re-read me".
The automatic refresh skips a field that has keyboard focus, so numbering
an element cannot overwrite a value half-typed under the cursor. Explicit
refreshes after a reset or an edit still write unconditionally, so the
field always ends up showing the canonical stored value.
Measured, advancing a counter the way numbering advances it and without
touching the combo box:
field before advance "5"
context after advance 6
field after advance "6" (was still "5")
Three new QUndoCommand subclasses (AddDiagramCommand, RemoveDiagramCommand,
MoveDiagramCommand) pushed onto the project's existing (already
project-scoped) undo stack, so folio structure edits are undoable
alongside every item-level edit already on that stack.
- QETProject::addDiagram()/detachDiagram() are the shared attach/detach
primitives: they mutate the diagram list, connect/disconnect the two
per-diagram signals set up at add time, and emit diagramAdded/
diagramRemoved. AddDiagramCommand and RemoveDiagramCommand call these
(via friend access) for both redo and undo, so a removed diagram is
parked rather than destroyed -- it's only actually deleted if the
command itself falls out of undo history while still detached.
- ProjectView reacts to diagramRemoved the same way it already reacted to
diagramAdded (tearing down/rebuilding the tab), so both directions of
both commands go through the same reactive path every other diagram
listener (project database, cross-references, generic panel) already
relies on.
- MoveDiagramCommand wraps a new ProjectView::setDiagramPosition(), which
performs the tab move and the project's diagramOrderChanged() list
reorder synchronously in one step, instead of relying on the queued
tabMoved connection (needed for interactive drag-and-drop) to catch up
later -- avoiding a second, redundant reorder from that queued call.
- Multi-folio delete and multi-folio move (QETDiagramEditor::removeDiagrams()
and the moveDiagram*(QList<Diagram*>) batch slots) wrap their per-diagram
loop in QUndoStack::beginMacro()/endMacro(), so a multi-select action is
one undo step, matching current UX.
- Softened the delete confirmation's "this change is irreversible" wording
now that it no longer is.
Verified headlessly (Xvfb + xdotool + scrot): add/undo/redo, delete/undo/
redo (single and multi-select, single undo step for the batch), and
move/undo/redo all behave correctly against a 7-folio project.
Adds a ProjectUsageTracker (sources/project/) that accumulates how
long a project has been the active tab, using QElapsedTimer so the
value is computed on demand rather than via polling. It's hosted on
ProjectPropertiesHandler per that class's own stated design intent
("all new properties should be managed by this class").
The accumulated time is persisted as a new <usage time_spent="N"
enabled="true|false"/> element, a sibling of <properties> in the
project XML, written/read by new QETProject::writeUsageXml()/
readUsageXml(). It rides along on the existing autosave path for
free, since writeBackup() already serializes the full project via
toXml().
QETDiagramEditor::subWindowActivated() now pauses every open
project's tracker except the one whose tab just became current, so
switching between several open projects keeps each project's tracked
time isolated.
Surfaced in the existing Project Properties "Général" page: a
"Temps passé sur ce projet" display, a "Réinitialiser" button, and
an opt-out checkbox ("uniquement enregistré localement dans ce
fichier" - this is local-only, never transmitted anywhere).
Verified beyond compiling: full CMake build, then an actual runtime
session confirming the saved XML's time_spent value, that closing
and reopening the project round-trips and resumes timing, that the
reset button works, and - the key correctness check - that with two
projects open, the inactive one's time_spent stays frozen while the
active one accumulates real elapsed time, over the same interval.
See discussion #576.
Co-Authored-By: Claude Sonnet 5 <noreply@anthropic.com>
QETProject::writeBackup() was Qt5-only: the Qt6 branch of the guard was
an empty placeholder, so on Qt6 no backup was ever written - a silent
data-loss risk (a crash loses everything since the last manual save),
found by ispyisail in qelectrotech#553.
The Qt5-style QtConcurrent::run(function, reference-args) call did not
survive the Qt6 API change; a lambda capturing the (implicitly shared)
document copy behaves identically on both, so the version guard goes
away entirely.
Verified at runtime on the Qt6/Windows build: opening a project creates
the autosave triple (.qetautosave + .lock + .path) with valid XML
content, and a clean exit removes it again. The CLI keeps backups
disabled via setBackupEnabled(false), unchanged.
(cherry picked from commit 0f65ae8c4b2782fbfe97111bc8b369cc105ec592)
Requested in #553 to compare Qt5 and Qt6 builds. QET already reports how
long the elements collection takes to load (ElementsCollectionWidget::
reload); this adds the equivalent for opening a project.
The phases are reported separately rather than as a single total. Reading
the XML and building the objects is mostly independent of the Qt version,
whereas refreshing the diagrams is graphics-scene work -- a single number
would mix the two and could suggest a Qt version makes no difference when
the part that changed is simply not where the time goes. Measured on the
example projects, XML parsing is 3-7% of the total and diagram
construction 77-83%, so the distinction matters in practice.
QETProject::openFile() reports the total with the parse/build split, and
readProjectXml() reports the build phases:
Project content built in 1.391 seconds (elements collection 0.009,
diagrams 1.153, terminal strips 0, refresh 0.196, database 0.033)
Project "example.qet" (3399 KiB) opened in 1.505 seconds
(xml parsing 0.11, content 1.395)
Logged with qInfo(), matching the existing collection timer, so it lands
in the normal log without a debug build.
Co-Authored-By: Claude Opus 5 <noreply@anthropic.com>
qAsConst was deprecated in Qt 6.6; std::as_const (C++17, already the
project standard) is the drop-in replacement. Clears 46 -Wdeprecated-
declarations warnings across 18 files. No behavioural change.
Provide a small KAutoSaveFile-compatible implementation for the no-KF5 build path and use it to keep the existing crash-recovery code active when BUILD_WITH_KF5=OFF.
The normal KF5 build still uses the KDE KAutoSaveFile implementation.
Assisted-by: pi coding agent / Mika (OpenAI GPT-5.5)
writeBackup() fires QtConcurrent::run(QET::writeToFile, ..., &m_backup_file)
fire-and-forget: the QFuture was discarded and nothing kept m_backup_file
alive until the worker finished. If the QETProject was destroyed first, the
worker wrote through the freed member -> use-after-free crash in
QET::writeToFile (intermittent; ~1/6 on short-lived CLI runs).
Store the QFuture and waitForFinished() in ~QETProject (and before
setFilePath() re-points the managed backup file). Also skip launching a new
backup while one is still running, so two threads never write m_backup_file
at once.
The Qt6 path is still a TODO stub and the QtConcurrent block is KF5-only, so
this affects only the Qt5/KF5 build that actually has the backup code.
Saving a read-only project to a writable location (e.g. Save As to /tmp)
left it marked read-only, so it stayed uneditable until closed and
reopened. Two issues in QETProject::write():
- The guard refused to write whenever QFileInfo(path).isWritable() was
false. For a Save As to a *new* file that test is always false (the file
doesn't exist yet), so it could wrongly block saving a read-only project
elsewhere. Now it checks the directory's writability for a new file.
- After a successful write the read-only flag was never cleared. Since the
file was just written, it is writable, so clear it (setReadOnly(false)
emits readOnlyChanged, re-enabling editing live).
Fixes#217.
QETProject schedules an asynchronous crash-recovery backup on construction
(writeBackup() -> QtConcurrent::run(QET::writeToFile, ..., &m_backup_file)).
In one-shot CLI mode the QETProject is destroyed as soon as the command
returns, while that background write still references its m_backup_file
member — an intermittent use-after-free segfault during teardown (~1 in 6
runs; observed on --resave and --set-titleblock).
A crash-recovery backup is meaningless for a short-lived headless command,
so add QETProject::setBackupEnabled(false), called from the CLI entry in
main(). writeBackup() then early-returns, so no background write is ever
launched. Fixes the crash for all CLI commands. See #492.
Modification of the int BACKUP_INTERVAL from 2 min to 20 min used by
KautoSaveFile.
On a large project with a 256 MB folio printed in A0 format, the
graphical interface freezes for 30 seconds when KautoSaveFile writes
this large amount of data to the disk every two minutes.
Even if the programme crashes, you only lose 20 minutes of your work,
which is not a big deal.
Thanks to Enzo for reporting it and finding the problem.
All export files that are derived from the project (BOM,
nomenclature, etc.) are saved in the same directory by default.
In this context, the standard directories have been grouped
together in qetapp.cpp / qetapp.h so that only one place needs
to be searched for in case of any adjustments.