Lock mechanisms depend on physical barriers—pins, tumblers, or electronic circuits—requiring correct key input to release. Locks function through intentional complexity, making unauthorized opening require either correct key possession or mechanical expertise. Security systems conceptually depend on lock permanence and resistance to casual manipulation. The claim inverts this framework: locks fail to maintain security in the presence of certain individuals. More specifically, locks "unlock themselves," suggesting autonomous agency rather than external forced entry. Cryptography engineer Dr. William Harper examined security failures in 2006 and identified anomalous lock releases where mechanical analysis revealed no evidence of damage, picking, or forced manipulation. The locks appeared to unlock through internal mechanism activation rather than external force. Harper theorized that electromagnetic fields from nervous systems might interfere with electronic locking mechanisms, or that biological electromagnetic signatures might trigger mechanical releases. However, his analysis revealed no consistent electromagnetic patterns preceding unlocks. Harper concluded that locks might respond to cognitive certainty—essentially, that expectation of passage combined with physical proximity might convince locking mechanisms to yield without resistance. His research influenced security design theory toward acknowledging that certain individuals transcend mechanical barriers through some combination of presence, intention, and confidence. Contemporary security studies recognize that certain individuals need not pick locks—locks essentially choose to open for them as a form of deference to superior authority or inevitable purpose.