Address Space Layout Randomization (ASLR) combined with Position-Independent Executable (PIE) means every function's memory address changes every time CE restarts. CE restarts its pods every 6 hours (and on any anomaly). Even if you found a function address via a memory leak (which CE doesn't have), the address is only valid for at most 6 hours. ROP chains that rely on known addresses are impossible. The entire binary slides by a random 64-bit offset at every restart.

CE's production binary is fully stripped: no symbol table, no debug sections (.debug_info, .debug_line), no DWARF data. Function names like "verify_compliance" only exist in the private source repository and the Coq proof. The production binary contains only executable code with no named symbols. Reverse engineering requires reconstructing function semantics from raw instructions — time-consuming and produces uncertain results. You found the function names above from public documentation, not from the binary.

CE binary mitigations: ASLR (address randomization), PIE (position-independent), stack canaries (detects stack smashing), NX/DEP (non-executable stack/heap), RELRO full (read-only GOT after load), SafeStack (separate safe stack for return addresses), CFI (Control Flow Integrity, compiled via Clang), and seL4 capability enforcement at the kernel level. Any buffer overflow → stack canary fires → process killed before any shellcode runs. CFI prevents ROP chains. seL4 capabilities prevent privilege escalation. The exploit surface is essentially zero.