So not a single Caesar shift across whole text. One known trick: each letter is shifted to an adjacent key on QWERTY.
Test mstqym → direct : m→d = shift -9 (or +17), s→i = shift -10 — inconsistent. danlwd fyltr shkn rstm ba lynk mstqym
return results encoded = "danlwd fyltr shkn rstm ba lynk mstqym" decodings = decode_obfuscated_phrase(encoded) So not a single Caesar shift across whole text
# Atbash atbash_map = str.maketrans( "abcdefghijklmnopqrstuvwxyz", "zyxwvutsrqponmlkjihgfedcba" ) atbash = encoded.translate(atbash_map) results["Atbash"] = atbash return results encoded = "danlwd fyltr shkn rstm
Let’s test first word danlwd — if we shift each letter one key on QWERTY: d→s, a→ doesn't have left? a’s left is caps lock — fails. Shift right: d→f, a→s, n→m, l→k, w→e, d→f → fsmkef — no. Step 5 — Try reversing words and applying ROT13 Reverse string: myqstm knyl ab mtsr nkhs rtl yfwdlnad — looks less likely. Given the time constraints, the most probable intended encoding here is Atbash — let me double-check quickly with a known example:
This feature runs multiple decoding attempts and prints results where common words like link or direct appear, which would likely reveal the plaintext.