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* Released a module thread's kernel stack only when it has one, so deleting a thread without a manager-allocated stack no longer asks for that memory back The thread delete dispatcher decided whether to release a kernel stack from the calling module's property flags. A user-mode module can be given the address of a thread that carries no kernel stack the manager allocated, and deleting it passed that thread's null stack pointer to _txm_module_manager_object_deallocate(). The pointer is now tested instead of the module's properties. Both thread create paths clear the whole control block before filling it in, so a thread with no manager-allocated kernel stack holds TX_NULL in the field, which makes the test exact rather than an inference from how the module was loaded. Assisted-by: Claude Code (Opus 5) <noreply@anthropic.com> * Added a Module Manager host test harness and covered the user-mode thread kernel stack lifetime The Module Manager is not in the ThreadX library the test tree links, and its control blocks come from a module port rather than a base port, so nothing in the suite could reach it. The thread_transition directory already describes this technique as the one "the module manager tests in this tree use", but no such tests existed. This adds the directory that comment refers to: a port shim that replaces the three interrupt primitives with host equivalents that count, and a CMake target that compiles the manager sources under test directly against one module port's headers. The dispatch layer is one header of static functions and an unoptimised build emits all of them, so a test that includes it to reach one dispatcher would pull in references to every service the manager can dispatch. The header guards each dispatcher with its own TXM_<SERVICE>_CALL_NOT_USED macro, so the build reads that list out of the header and defines every guard except the ones the test needs. Reading it rather than writing it down means a service added later is excluded without anyone having to remember. The first test asserts the invariant a user-mode module thread has to hold: one logical thread costs the object pool two allocations, the control block the module asks for and the kernel stack the manager takes on its behalf, and deleting the thread must return the pool's available bytes and the module's allocation-list count to exactly what they were. It asserts an equality rather than a bound, because a bound would pass while one of the two was left behind on every cycle, and then runs enough cycles that a leak of one stack per cycle exhausts the pool several times over. Assisted-by: Claude Code (Opus 5) <noreply@anthropic.com>