bf8b3baf74f8cbcbe279c0f09ad54c7944bfb69b
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Commits
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bf8b3baf74 |
fix(task-9): put the fastener plan in projection with its elevation, and refuse a thread size that is not d
Two wrong-drawing bugs in SECTION 22.
1. _hex_points defaulted to start_deg=0, putting vertices at 3 and 9 o'clock,
so the plan of an M12 hex head measured 18 mm (across flats) across the
vertical while the elevation drew that same head 20.78 mm tall (across
corners e, silhouette edges at +/- e/4 - the projection of a hexagon with
vertices top and bottom). Place the two blocks in projection and the two
views of one part disagree. The default is now 30 deg, named HEX_START_DEG
and documented on both the constant and _hex_points as the convention the
elevation is the projection of, so a future fourth caller cannot pick the
other one by accident. The three top builders (_hex_fastener_top,
_hex_nut_top, _socket_head_top) inherit it.
2. _thread_feature read the pitch from params['size'] via the ISO 261 table
while drawing the geometry from params['d'], never cross-checking the two.
feature_spec('thread', {'d': 8.0, 'length': 20.0, 'size': 'M20'}) drew an M8
minor diameter and returned dims['pitch'] = 2.5 with ISO 261 cited as the
source - one thread's pitch on another thread's geometry, a silent wrong
number carrying a standards citation. A mismatch is now refused by name,
like every other check in the module. std_feature_draw's params description
says so.
Guard tests: the old top-view test asserted only len(points) == 6 and never a
vertex coordinate, so the orientation was untested. Added the vertex
coordinates, the plan-vs-elevation silhouette-height invariant across ISO 4014
/ 4017 / 4032, the socket screw's dk invariant, and the refused thread pair.
No ActiveX member is added or changed by either fix; both are pure geometry and
validation, so no live measurement is cited. The live AutoCAD could not be
probed for a confirmation run - GetActiveObject blocked past 150 s under
sibling contention.
Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com>
Claude-Session: https://claude.ai/code/session_01FKFStjEFzpGyLq5bMpWxTd
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84c1ef42fb |
feat(task-9): SECTION 22 - std_part_list, std_part_insert, std_feature_draw
engineering/mech/stdparts.py turns the Task 8 tables into real blocks. catalogue() searches 83 transcribed parts by designation, standard, size or family; block_spec() emits the typed primitives and DESIG/STD/SIZE/MAT ATTDEFs block_define takes, in side/top for fasteners and ISO 8826-1 simplified / ISO 8826-2 detailed for bearings; insert_std_part() defines the block once, inserts it and writes the std_part ACADMCP_MECH payload the skeleton pins, so the parts list is a read of the drawing rather than a naming convention. Threads follow ISO 6410 - minor at 0.8 x major, a thread-length limit line to the major, a three-quarter minor arc in the end view. std_feature_draw() adds a thread, a DIN 509 undercut, a DIN 471/472 groove, a DIN 332 centre hole or an ISO 3601-2 O-ring groove to geometry that already exists. Its dimensions come from the shared standards registry, never from this module: an absent table, a size outside coverage or a row missing a dimension is refused by name, and the DIN 509 relief is drawn from the profile its table publishes rather than reconstructed here. DIN 332 form R is refused outright. An unknown designation is refused with the nearest catalogue entries; nothing is drawn approximately. SECTION 22 registers the three tools in the new mech pack, with alias records (INSERT plus shop-floor synonyms in English and Turkish), a regenerated tool inventory, the README release snapshot at 207 tools in 24 groups, and the frozen group-size snapshot gaining mech: 3. Two plan corrections, both verified by running the code: * the plan's @cad_tool summaries for std_part_insert (118 chars) and std_feature_draw (130) overran discovery.serialize.MAX_SUMMARY_CHARS = 110, so tests/test_tool_registry.py::test_no_authored_summary_is_long_enough_to_be_truncated failed - they would have shipped rendered as "...". Both are shortened to 99 and 104 characters with the same content. * the plan's file list omitted tests/test_tool_packs.py, which pins the pack registry, the tool_packs report and the group count. It now carries MECH_TOOLS and distinguishes ALL_PACKS (declaration order, what "available" reports) from ALL_PACKS_ENABLED (sorted, what "enabled" reports) - those two lists stopped being the same list when "mech" was appended after "settings". No new ActiveX member is called: the module drives block_list / block_define / block_insert / entity_set_xdata / entity_create_* only. The COM path was still executed live once on AutoCAD 2026 in a scratch document created and closed by the probe: the bolt block defined with layers CENTER+GEOMETRY, attributes read back as DESIG/STD/SIZE/MAT = ISO 4014 - M12x60 / ISO 4014 / M12x60 / 8.8, the ACADMCP_MECH std_part payload round-tripped through entity_get_xdata, STD_ISO_15_6205_SIMPLIFIED inserted, and the M20 thread's three primitives landing on GEOMETRY. Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com> Claude-Session: https://claude.ai/code/session_01FKFStjEFzpGyLq5bMpWxTd |
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49b972f007 |
feat(task-8): ISO fastener and ISO 15 bearing tables, transcribed and pinned
engineering/mech/standards/fasteners.py carries ISO 4014:2011 / ISO 4017:2014 head dimensions (s, k), ISO 4032:2012 nut heights, ISO 7089:2000 washer d1/d2/h and ISO 4762:2004 socket head cap screws, plus the ISO 261:1998 coarse pitch column. bearings.py carries the ISO 15:2017 deep groove boundary dimensions for 6000-6010, 6200-6210 and 6300-6310. Only the ISO 261 first-choice sizes ship. M14/M18/M22/M27/M33, everything above M36 (above M24 for ISO 4762), the 618x/619x/16xx bearing series, bore numbers above 10 and every suffixed bearing variant are refused by name rather than interpolated: a narrow table is merely narrow, a wrong row ships a wrong workshop drawing. Across-corners e is derived geometry (2s/sqrt(3)), so no e column had to be transcribed at all, and the ISO 8826-1 cross and ISO 8826-2 element-symbol fractions are declared drawing conventions, not table values. No ActiveX member is called by this task, so no live AutoCAD probe was needed; the two modules are pure tables and pure arithmetic. Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com> Claude-Session: https://claude.ai/code/session_01FKFStjEFzpGyLq5bMpWxTd |
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2bb8044144 |
feat(mech): shared foundation - primitives, XDATA codec, standards registry, ISO 128-50 materials
engineering/mech/ opens with the four modules every track-B/G branch imports, so the four worktrees can be cut from this commit and none of them has to invent a name the others will conflict with. - primitives.py: the typed descriptions the pure modules emit (Line, Arc, Circle, Poly, HatchArea, Text, DimIntent) with bbox / translate / rotate / scale, and ROLE_LAYER - the one place an ISO 128 line role becomes a layer name, so no module hardcodes a layer. The arc bbox sweeps its quadrants: a 0-180 arc reports y=+r, not its endpoints, which is what keeps the view layout from stacking two views on top of each other. - xdata.py: the ACADMCP_MECH codec in Track A's shape - a 1001 application marker, 1000 chunks of at most 255 ASCII characters, the 16 KB per-entity ceiling enforced before anything is written, and a foreign application, a corrupt chunk stream, a wrong version or an unknown kind refused with ValueError instead of decoded into something plausible. - standards/__init__.py: the table registry. A size outside the coverage is refused against the coverage; a size inside it that is not a listed row is refused against the rows. Nothing is interpolated, an ambiguous variant is never resolved by taking the first row, and a registration whose SOURCE does not name the table it was transcribed from is refused. - standards/materials.py: the section-hatch map for nine materials. ISO 128-50 standardises only the general hatching (narrow continuous lines at 45 degrees) - that is acadiso.pat ANSI31 and what engineering/gear.py already draws for steel. The distinguishing symbols are ASME Y14.2M's section lining as shipped in AutoCAD 2026's acadiso.pat, read off the installed file; cast iron's departure from ASME and the absence of any mechanical symbol for concrete and wood are stated in the rows themselves. Angles are 0.0 because the patterns already carry 45 degrees, and the two architectural patterns' scales are derived from the ANSI31 line spacing and recomputed by the test rather than chosen. No tool is registered here. Co-Authored-By: Claude Opus 5 (1M context) <noreply@anthropic.com> Claude-Session: https://claude.ai/code/session_01FKFStjEFzpGyLq5bMpWxTd |