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Sixth classification batch: prog-general plus the language modules — prog-c, prog-go, prog-lisp, prog-python, prog-webdev, prog-json, prog-yaml, prog-shell, prog-training. I annotated each header, added a Batch 6 table to the inventory, and extended the validation allowlist. 52 of 102 modules are now classified.
prog-general owns the shared defaults and tree-sitter/LSP policy and stays eager. The language modules are eager only by init order and should load by major mode, so they're tagged Phase 6 deferral candidates. prog-shell's after-save executable hook is the one side effect worth scoping. No new hidden dependencies.
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The fallback compile command in `cj/c-compile-command` was building paths from `(buffer-name)`. That broke for renamed buffers, uniquified names like `foo.c<2>`, and files outside `default-directory`. The buffer name is a display label, not a path, so `gcc -o name name` would compile (or fail to compile) the wrong target whenever the two diverged.
I extracted `cj/c--single-file-compile-command` that takes the source path explicitly, shell-quotes both source and output paths, and signals a clear `user-error` for non-file buffers. The fallback now passes `buffer-file-name` instead of `(buffer-name)`.
Tests for this helper landed in commit f619cbf alongside other prog-c coverage work.
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I added a new module `modules/dev-fkeys.el` that owns the dev F-key block. F4 prompts via `completing-read` with a candidate set filtered by project type (compiled / interpreted / unknown). C-F4 is the compile-only fast path. M-F4 is clean + rebuild. It runs a heuristic clean command derived from the project markers (go.mod, Cargo.toml, Eask, Makefile, CMakeLists.txt) and chains `projectile-compile-project` on success. S-F4 stays on `recompile` and now lives globally instead of duplicated across prog-general.el and prog-c.el. F6 is bound globally to `projectile-test-project` as a Phase 1 stopgap. Phase 2 replaces it with the polyglot test runner spec'd in todo.org.
Project-type detection runs against the projectile root and falls back to `unknown` when no marker matches. Interpreted markers are checked first so a Python or Node project with a Makefile for tasks classifies as interpreted instead of compiled. Compile + Run sequencing uses a one-shot `compilation-finish-functions` hook that self-removes on first invocation and only fires the follow-up when the status string starts with `finished`.
Cleanup in the same commit:
- Dropped F4/F5/F6 from `prog-general.el`'s prog-mode-hook. They are now global.
- Dropped F6→format bindings from prog-c.el / prog-python.el / prog-shell.el. C-; f was already bound in each, so this is pure removal.
- Dropped the duplicate S-F4 from prog-c.el. The global binding covers it.
- Updated the keybinding header in prog-general.el and the workflow comments in prog-c.el / prog-shell.el.
- Wired `(require 'dev-fkeys)` in init.el alongside coverage-core.
TDD: 73 tests across 11 files, one per helper. Production code is split into small testable internals (`cj/--detect-project-type`, `cj/--f4-candidates`, `cj/--f4-derive-clean-cmd`, `cj/--f4-make-once-hook`, `cj/--f4-dispatch`, `cj/--f4-compile-and-run-impl`, `cj/--f4-clean-rebuild-impl`, `cj/--f4-project-root`) plus three thin interactive wrappers. Smoke tests confirm bindings register on load.
Known limitation: if another `compilation-finish-functions` hook fires between my add-hook and the compile finishing, the chain can fire on the wrong compile. The hook self-removes on first invocation regardless of which compile it sees. Documented in the impl docstring. Acceptable for v1.
Phase 2 will replace F6 with the polyglot test runner (tree-sitter queries for Python/Go/TS, sexp scan for Elisp, buffer-local last-test memory).
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Add language-specific keybindings and configurations for C, Go,
Python, and shell scripting panels. Introduce system utility
function declarations and improve keybinding consistency across
languages. Implement keybindings for debug, format, and static
analysis tools tailored to each programming language, enhancing the
developer experience and workflow efficiency.
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Modernize the C programming setup by integrating LSP and
tree-sitter, adding debugging capabilities with GDB, and enabling
formatting with clang-format. Introduce workflow examples and
configurable compilation commands to enhance development efficiency.
Set up global keybindings for common actions.
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