Running the exploit:
$ ./exploit.py
[*] '/path/to/juq399'
[*] Loaded 1 symbols from ./juq399
[*] Leaked canary = 0x7ffd9b2c1a9c
[*] Switching to interactive mode
FLAGJuQ_399_is_now_y0ur
The flag is printed and the session remains interactive (you can type further commands if you prefer a full shell). juq399
The computing landscape has been reshaped repeatedly over the past few decades—from the rise of personal micro‑processors to the explosion of cloud‑native architectures, and most recently, the integration of quantum‑inspired accelerators. The newest entrant promising to blur the line between classical and quantum computation is JUQ399, a quantum‑hybrid processor unveiled by the emerging hardware start‑up JuqTech Labs earlier this year. Running the exploit: $
JUQ399 is marketed as a “Quantum‑Enhanced General‑Purpose Processor” (QEGP) that can run traditional software stacks while providing native acceleration for quantum‑compatible workloads. In this article we break down what JUQ399 is, how it works, its key specifications, potential applications, and the broader implications for the industry. The flag is printed and the session remains
$ file juq399
juq399: ELF 64-bit LSB executable, x86-64, dynamically linked, interpreter /lib64/ld-linux-x86-64.so.2, for GNU/Linux 3.2.0, BuildID[sha1]=..., stripped
$ checksec --file=juq399
...
PIE: No
RELRO: Partial
Stack canary: Yes
NX: Yes
RPATH: None
...