#MH370 #GORGONSTARE2014
Do you know why there's no negative time in airplane teleportation?Remember Newton and the apple? Exactly,
#GRAVITY
We deduce,therefore, that teleportation in a vacuum will create temporal negativity,just as tides create foam. Welcome to dead quantum time.
Researchers at the University of Toronto, led by physicist Daniela Angulo and doctoral student Josiah Sinclair, have made a groundbreaking discovery that challenges our conventional understanding of time. Through a two-year quantum physics experiment involving ultra-cold rubidium atoms and photon interactions, the team observed an effect they describe as “negative time.”
The experiment used a specially designed setup to track how long atoms remained in an excited state after absorbing photons. Surprisingly, under certain conditions, the measurements showed negative time delays—suggesting that if a quantum clock were used, it would appear to tick backward. According to Sinclair, this paradoxical behavior reflects how quantum particles can appear to interact with atoms before arriving, flipping classical expectations.
To investigate further, the team collaborated with renowned quantum theorist Howard Wiseman (Griffith University), developing a model showing that the observed delay was tied directly to how photons were transmitted—either by passing through without interaction or being absorbed and re-emitted. In some cases, the atoms seemed excited even when photons were unaffected.
This phenomenon supports the idea that quantum time may not be strictly linear. While it doesn't imply literal time travel, it aligns with advanced interpretations of quantum mechanics, such as the transactional interpretation and retrocausality, which allow particles to exchange information across time directions. As noted by theoretical physicist Sabine Hossenfelder, these findings emphasize how quantum equations often remain symmetrical—unchanged whether time flows forward or backward.
Beyond the theoretical intrigue, this research has practical implications for quantum computing. By deepening our understanding of photon–atom interactions, scientists could develop more efficient quantum circuits and improve quantum data loading, a key challenge in scaling quantum systems.
Although still early in its exploration, the discovery opens new frontiers in understanding time, causality, and information in the quantum realm. As co-lead researcher Aephraim Steinberg noted, “We don't yet know where this leads—but we’re going to keep thinking about it.”

ALT Researchers at the University of Toronto, led by physicist Daniela Angulo and doctoral student Josiah Sinclair, have made a groundbreaking discovery that challenges our conventional understanding of time. Through a two-year quantum physics experiment involving ultra-cold rubidium atoms and photon interactions, the team observed an effect they describe as “negative time.”
The experiment used a specially designed setup to track how long atoms remained in an excited state after absorbing photons. Surprisingly, under certain conditions, the measurements showed negative time delays—suggesting that if a quantum clock were used, it would appear to tick backward. According to Sinclair, this paradoxical behavior reflects how quantum particles can appear to interact with atoms before arriving, flipping classical expectations.