Integrate the numeric precision correction from #1135 with complete supplemental
metadata handling. Keep decoded numbers with an explicit limitation for mixed XML
content or unclassified integer text, rather than assigning another literal's
exact decimal. Project nonnumeric UID and CF$UID dictionary values recursively
while preserving numeric references, graph identity and original byte digests.
Add filesystem, built CLI and MCP regressions for the review findings, adjacent
XML representations and numeric reference controls. Retain the original native
Foundation qualification fixtures and verifier.
Verification: 84 focused tests; npm run check; npm run docs:check;
npm run verify:test-discovery; npm run verify:keyed-archive (real Foundation,
CLI and stdio MCP). No real Hopper or Ghidra verification was needed or run.
Co-authored-by: Rudy Mizrahi Celekli <47457359+rudycelekli@users.noreply.github.com>
Signed-off-by: morluto <76467478+morluto@users.noreply.github.com>
Read source digests, FAT tables and embedded headers from one opened source stream before translating native offsets. Preserve native mapping observations through changed, missing, nonregular and access-denied source failures; keep filesystem work outside the Hopper API thread.
Exercise source drift, relocated slices, missing files, permissions and recovery through real Hopper CLI/MCP verification for thin, FAT32 and FAT64 inputs.
Collect references from the complete owned function body and exact entry,
including instruction-interior destinations and embedded-data sources.
Bind the corrected semantics to the analysis profile so legacy snapshots
cannot replay incomplete results. Preserve snapshot mismatch reasons and
recovery advice through CLI and MCP without disturbing live sessions.
Return exact entry candidates for ambiguous function names. Expand the
real-provider regression workflow and replace redundant parser assertions
with malformed-output coverage through the pinned MCP client.
Verified with Ghidra 12.1.4 on macOS arm64: full host-native lane, real
CLI/MCP boundary probes, 30 focused tests, and typecheck/lint.
Validate native annotation text before mutation and escape surrogate code units in Java bridge JSON replies. Reject unsupported text with field and index diagnostics while preserving supported Unicode and line endings.
Probe real CLI/MCP annotation, transport, mapping, rollback and cleanup behavior; replace seven redundant unit tests with E2E and SDK boundary coverage.
Preserve boundary diagnostics, resolve procedure names before bare hex addresses, and launch the inspected JVM directly on macOS for verifiable startup cancellation. Keep private socket paths within host limits and retain ownership when cleanup is incomplete.
Exercise the fixes through real CLI/MCP Ghidra workflows and provider-boundary integration tests, replacing redundant unit coverage.
main now carries #964 (skill version 29, macOS native row 7 -> 8):
- README_ja/ar/ko/zh: take main's tables and count
trace_dylib_resolution in the artifact graph row (5 -> 6).
- Skill: move to version 30.
- Regenerate the product catalog, conformance manifest, skill digest and
package metadata (136 tools).
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Add observe_native_calls (CLI: observe-native-calls <path> <input-json>). It
launches the active Mach-O as an owned process under `lldb --batch`, stops at
caller-selected functions or Objective-C methods, records each entry and
auto-continues:
- thread, image, symbol, load and file address;
- raw integer argument registers and optional caller frames;
- for methods, the selector read from _cmd and the receiver's dynamic class,
from LLDB's runtime reader without running target code.
No expression is evaluated and no existing process is attached. The run ends
on exit, max_events or duration_ms; REA then kills the process and confirms
that it is gone. The result also carries exit status, bounded stdout/stderr,
breakpoint resolution with partial coverage for unresolved requests, and
limitations. A target LLDB may not debug fails with a debugger-attach-denied
reason and remediation.
verify:native-calls checks the tool through the CLI and stdio MCP against a
compiled fixture, compares breakpoint addresses with nm, exercises every
outcome, and checks hardened-runtime targets with and without get-task-allow.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
inspect_native_dispatch_metadata read pointer fields as stored bytes, so
chained-fixup images (the default since Xcode 13) decoded no classes, and
superclasses from other images were always unresolved.
- Decode LC_DYLD_CHAINED_FIXUPS pointer formats 64, 64_OFFSET, ARM64E,
ARM64E_USERLAND and ARM64E_USERLAND24 with import formats 1-3, and
interpret LC_DYLD_INFO bind, weak-bind and lazy-bind opcode streams.
- Name external superclasses from their _OBJC_CLASS_$_ binds.
- Decode class_ro_t baseProperties and __objc_catlist category_t records
(instance/class methods, protocols, properties) into objc_categories;
category methods carry their category name.
- Report the fixup encoding in a pointer_fixups coverage facet.
- verify:apple-dispatch builds the fixture with dyld-info and chained
fixups, plus arm64e on Apple silicon.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
Add trace_dylib_resolution (CLI trace-dylib-resolution) to the artifact
family. For the active Mach-O, or every executable in the active .app
(the main app, XPC services, extensions, login items, helpers), it
reports which file each dylib load reaches and how.
A pure TypeScript reader decodes FAT and Mach-O load commands:
LC_LOAD/WEAK/REEXPORT/LAZY/UPWARD_DYLIB, including the newer
dylib_use_command encoding with weak, re-export, upward and delayed-init
flags, plus LC_ID_DYLIB, LC_RPATH, LC_DYLD_ENVIRONMENT and code-signature
presence. Malformed tables are reported with the failing command instead
of being guessed.
Resolution follows dyld:
- @executable_path comes from each process root;
- @loader_path comes from the loading image, or from the owner of the
LC_RPATH entry being expanded;
- @rpath searches the loader's rpaths first, then up the load chain;
- dependencies load dependents-first in load-command order, once per
process, and a matching install name reuses an already loaded image;
- symlinks are followed inside the analyzed root, and escapes stop.
Every candidate path is reported with its outcome. Each edge resolves to
resolved, conditional (an outside-root candidate such as /usr/lib/swift
precedes), unresolved, or undetermined. Absolute and shared-cache system
paths are never checked against the host. Derived findings cover
unresolved required or weak loads, absent earlier @rpath candidates (with
library validation left unknown), and LC_DYLD_ENVIRONMENT.
verify:macos-bundle now also:
- checks every traced image against otool -l;
- asserts each resolution status on a clang-built fixture that adds a
missing Overrides rpath, an absolute rpath, and a delay-init library;
- compares the predicted load order of two process roots with what dyld
loads under DYLD_PRINT_LIBRARIES.
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
* fix(ghidra): admit the 12.1 line and the install's JDK range
The provider treated the verified Ghidra 12.1.4 build and JDK 21 as the only
legal installation, so a working 12.1.x package or a newer JDK was rejected
before analysis started.
Admission now follows the 12.1 release line and application.java.min/max.
A compatible build other than 12.1.4 keeps its observed version and records
that the bridge was verified against 12.1.4.
Fixes#821
* fix(ghidra): stop pinning the NativeAOT build to one version string
The build script still rejected every Ghidra release except the literal
12.1.4 and every javac except major 21. It now accepts the 12.1 line and
javac 21 or newer, compiles with --release 21, and records the observed
Ghidra version. The JADX engine version uses the audited release constant.
* fix(ghidra): report unverified builds on analysis results
Session open uses health only as a startup gate and discards that
execution, so the unverified-build limitation never reached CLI or MCP
results. Attach it to every Ghidra execution for that install.
---------
Co-authored-by: Cursor Agent <cursoragent@cursor.com>
* feat(ghidra): edit function annotations atomically
Return annotation readback and refreshed function analysis through CLI and MCP. Own each database transaction, invalidate caches and immutable snapshots, preserve executable bytes, and retain the Windows mutation boundary.
Assisted-by: Nitori (gensokyo-skills:nitori-reverse-engineering)
* fix(ghidra): preserve qualified function annotation identity
Preserve namespaces during local name writes and match qualified readback to the refreshed dossier. Add a producer-shaped regression and verify a real namespaced C++ function through the CLI.
Assisted-by: Nitori (gensokyo-skills:nitori-reverse-engineering)
* test(ghidra): align verification with annotation authority
Keep strict capability and profile checks while admitting the explicit session metadata operation. Verify packaged transport authority and atomic transaction commitments and preserve a read-only Windows expectation.
Assisted-by: Nitori (gensokyo-skills:nitori-reverse-engineering)
* feat(ghidra): enable Windows x64 read-only analysis
* test(ghidra): exercise native Windows runtime boundaries
* test(ghidra): verify current Windows inventory and isolate ACL observer
* fix(ghidra): align Windows admission and address P0 review
Correlate typed labels with recovered block entries and one indirect dispatch.
Preserve ambiguous and nonexact integer associations as unknown with raw diagnostics.
Expose defaults separately, collect backing load metadata, and invalidate old profiles.
Add independent compiler-byte CLI/MCP acceptance and actual Ghidra model controls.
Assisted-by: Kogasa (gensokyo-skills:kogasa-surprise-testing)
Assisted-by: Suika (gensokyo-skills:suika-scatter-gather-planning)
morluto