Conventional studies of quantum entanglement have primarily focused on maintaining entangled states through extreme environmental isolation, such as cryogenic temperatures, electromagnetic shielding, and local noise suppression. While successful in controlled laboratory conditions, these approaches face fundamental limitations when extended to realistic or room-temperature environments. In this work, entanglement is not treated as a fragile state that must be rigidly preserved,but rather as a relational structure that emerges within a dynamically constrained temporal environment. This motivates a shift in perspective: from localized control of physical variables to a global interpretation of the environment as a structured frequency domain. newbalancems@naver.com
Myeong-Seop kim (Sat,) studied this question.
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