Quantum computation can be approached from distinct perspectives, illustrated by the double-slit experiment. The conventional “bottom-up” view models quantum reality from the perspective of individual photons, leading to a manufactured “r-stratum” that leverages interpreted quantum properties like entanglement and superposition for computational speed-ups and optimizations, potentially enabling qubit arrangements for simulating atoms, molecules, and even whole-chip computation. However, a “top-down” perspective views photons as constructs carrying quantum properties derived from the light source’s wholeness, suggesting an alternative approach based on “l-properties” related to W(L)—the wholeness parsed across layers of matter and life. This W(L)-focused approach offers the potential for a deeper understanding of nature and the possibility of co-creation, representing a fundamentally different pathway in the pursuit of quantum computational possibilities beyond the r-stratum’s engineered quantum effects.

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Surfacing a W(L) Approach to Quantum Computation

  • Pravir Malik

摘要

Quantum computation can be approached from distinct perspectives, illustrated by the double-slit experiment. The conventional “bottom-up” view models quantum reality from the perspective of individual photons, leading to a manufactured “r-stratum” that leverages interpreted quantum properties like entanglement and superposition for computational speed-ups and optimizations, potentially enabling qubit arrangements for simulating atoms, molecules, and even whole-chip computation. However, a “top-down” perspective views photons as constructs carrying quantum properties derived from the light source’s wholeness, suggesting an alternative approach based on “l-properties” related to W(L)—the wholeness parsed across layers of matter and life. This W(L)-focused approach offers the potential for a deeper understanding of nature and the possibility of co-creation, representing a fundamentally different pathway in the pursuit of quantum computational possibilities beyond the r-stratum’s engineered quantum effects.