The previous grouping compared `connectionDesignation` values (e.g. "1",
"2", "3") to detect group boundaries. Those values are pin position
numbers within a terminal block, not functional group identifiers, so
devices like the ABB ACS880 produced 11+ tiny single-pin "groups" instead
of the ~8 functional blocks (AC-IN, Motor-OUT, DC-Bus, Brake-Resistor,
Analog-I/O, Digital-I/O, ...) the reviewer identified.
Fix:
- Add `group` field to EdzPin, populated from the `functiondefinition`
attribute on <functiontemplate> (newer EPLAN) or its parent <function>
element (older EPLAN).
- Sort pins by group first (preserving XML appearance order per group),
then by designation within each group using natural sort.
- Use `groupKey()` — group when present, designation as fallback — for
the group-break detection that drives separator lines and Y-gaps.
Parts without any functiondefinition data retain the previous
designation-based behaviour unchanged.
Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
Pins are already sorted by designation (see EdzPart::parse natural sort).
This change makes same-designation groups visually obvious in the element
symbol by:
- Inserting a 5 px gap between consecutive terminals whose designation
differs, so each group reads as a distinct block.
- Drawing a thin dashed horizontal line through each gap, mirroring
the grouped-I/O style shown in typical manufacturer datasheets.
The body rectangle and bounding box grow automatically to accommodate the
extra gaps, so no fixed sizes change. Unique terminal names (added in the
previous commit) are unaffected.
Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
Two issues raised in PR review:
1. Copyright year: new files carried "2006" (the project's founding year).
Updated to "2006-2026" to reflect the actual authorship period.
2. Duplicate terminal names: EPLAN parts can have multiple connection
templates sharing the same connectionDesignation (e.g. a drive where
both wire entries of terminal "1" are labelled "1"). QET requires
unique terminal names for wiring and terminal-diagram generation.
Resolution order in EdzElementBuilder::build():
- Unique designation → used as-is.
- Duplicated designation with distinct sanitised description →
"designation_description" (e.g. "1_L_P").
- Otherwise → numeric suffix: "1", "1_2", "1_3", …
Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
- EdzArchive checks the archive magic up front: gives a clear message for
zip-format .edz (not yet supported) and unrecognised data, instead of an
opaque 7z decode error.
- Trim the vendored LZMA SDK headers to the decode closure actually used
(removes 21 unused encoder/multithread/Xz/Aes headers; 18 .c + 18 .h remain).
- Add sources/import/edz/README.md documenting the feature, the data mapping
and the bundled SDK.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Replaces the QProcess->7z shim with the public-domain LZMA SDK (23.01) 7-Zip
reader, vendored under sources/import/edz/lzma/ (decode-only subset). New
edzsevenzip.cpp wraps SzArEx_Open/SzArEx_Extract and writes entries via Qt, so
EdzArchive no longer needs an external 7-Zip at runtime. Enables the C language
in CMake for the vendored sources.
Verified: the bundled decoder extracts all three ifm sample .edz and the
generated elements still match the Python oracle exactly (byte-correct decode),
with no 7z on the path.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Wires EPLAN .edz import into the elements panel. EdzImporter orchestrates
EdzArchive -> EdzPart -> EdzElementBuilder and writes the generated .elmt into a
destination collection folder (named by order number). A right-click
"Importer une piece EPLAN (.edz)..." action on a writable collection directory
opens a file picker, runs the importer into that folder's fileSystemPath() and
reloads the panel; errors surface via QetMessageBox. Modeled on newElement().
EdzImporter verified headless against the Python oracle for KG6000/MFH200/
R1D200; the panel wiring is built/tested via the WSL Qt5+KF5 build.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Port of the edz2qet.py prototype's mapping to C++. EdzPart parses an EPLAN
part.xml into a portable model (identity/metadata, localized names, connection
list); EdzElementBuilder turns that into a QET element (generic symbol: body
rectangle + one west-facing terminal per pin, per-pin labels, localized <name>s,
and elementInformations for the BOM).
Pins are natural-sorted by designation so they stack 1,2,3,4 regardless of the
order EPLAN lists them (MFH200 lists 1,3,4,2). Output verified structurally
identical (uuids aside) to the Python oracle for three ifm samples — KG6000
(4-pin), MFH200 (4-pin, reordered) and R1D200 (5-pin, incl. Dutch name) — and
the generated element loads in the QET editor with correct UTF-8.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
First piece of native EPLAN Data Portal (.edz) import. A .edz is a 7-Zip
archive; QET previously had no archive handling. EdzArchive unpacks one to a
temporary directory and locates the contained part.xml.
The extraction backend is isolated behind extractWithSevenZipCli() so it can be
replaced with a bundled decompressor later without touching callers; this M0
step shells out to a 7-Zip CLI via QProcess. Verified on three ifm sample
parts (KG6000, MFH200, R1D200 — all 7z), plus the corrupt/missing-file paths.
Co-Authored-By: Claude Opus 4.8 <noreply@anthropic.com>
Shane Ringrose