We are at version 1.0. It is clunky, slow, and unforgiving. But so was the first airplane. Fourteen years later, we landed on the moon.
is a higher standard. It is the mathematical certainty that an exploit cannot execute its payload to achieve a malicious outcome. While Zero Trust asks, “Should this user access this resource?” Zero Hacking asks, “How do we ensure that even if the user is malicious, the system cannot be subverted?” Zero Hacking Version 1.0
How it works: During boot, Version 1.0 loads a "capability table" into the CPU's microcode. If mov or jmp attempts to jump to an address outside its pre-defined "allowed memory region," the operation is aborted, and the system enters a zero-state reset. Forget containers and VMs. They are leaky abstractions. RBC treats every process as a hostile actor by default. But unlike traditional sandboxing, RBC does not rely on syscall filtering (which can be bypassed via io_uring or ptrace tricks). We are at version 1
| Attack Vector | Legacy Linux/Windows | Zero Trust (BeyondCorp) | | | :--- | :--- | :--- | :--- | | Heap Buffer Overflow | Exploit likely succeeds (ROP required) | No mitigation; relies on patching | Prevented (IIS rejects ROP jumps) | | Privilege Escalation (Dirty Pipe/CVE) | Patch after 2-4 weeks | Partial (requires re-auth) | Prevented (RBC limits resources; temp memory sanitized) | | Living-off-the-land (LOLBins) | Detected via heuristics (misses 20%) | Identified via behavior | Prevented (IIS blocks non-whitelisted instruction sequences) | | Firmware Rootkit (Bootkit) | Requires Secure Boot (often disabled) | Out of scope | Prevented (TMS wipes early boot vectors) | Fourteen years later, we landed on the moon