`parse_function` and `parse_functions` mutually recurse for each nested `DW_TAG_subprogram` in the input, but only inlinee nesting is bounded by `remaining_inline_depth`; deeply nested subprograms can still exhaust the native stack.

`parse_function` and `parse_functions` mutually recurse for each nested `DW_TAG_subprogram` in the input, but only inlinee nesting is bounded by `remaining_inline_depth`; deeply nested subprograms can still exhaust the native stack.

`parse_function` and `parse_functions` mutually recurse for each nested `DW_TAG_subprogram` in the input, but only inlinee nesting is bounded by `remaining_inline_depth`; deeply nested subprograms can still exhaust the native stack.

`parse_function` and `parse_functions` mutually recurse for each nested `DW_TAG_subprogram` in the input, but only inlinee nesting is bounded by `remaining_inline_depth`; deeply nested subprograms can still exhaust the native stack.

parse_inlinee returns early for empty-range DW_TAG_inlined_subroutine entries without decrementing remaining_inline_depth, allowing an attacker to chain empty inlinees and exhaust the stack before the depth limit is reached.

`decompress_section` reads a decompressed size from the ELF compression header and pre-allocates a buffer via `Vec::with_capacity(size)` before the data is decompressed. The size is superficially checked against `max_decompressed_section_size`, but that option defaults to `None` (treated as `usize::MAX`), so the check is inactive in default configurations. A tiny crafted ELF with a compressed section claiming a huge size causes an allocator abort.