[Regular measurement--a new method for biophysical experiment]

Area of Science:

• * Physics and Measurement Science
• * Quantum Mechanics
• * Physical Chemistry

Context:

• * Experimental measurements of various process rates were analyzed.
• * Long series of stereotypic measurements under stable conditions were performed to determine D.
• * The study focused on regular changes in biochemical, chemical, and physical quantities.

Purpose:

• * To investigate the relationship between the measured quantity's value and its experimental scattering width.
• * To determine the quantized relations governing measurement variability.
• * To explore the connection between measurement variability (D) and a universal dimensionless constant (D0).

Summary:

• * A system of quantized relations was experimentally identified between measured quantity values and their scattering width.
• * The study found that the variability measure D is related by a simple rational expression to a universal dimensionless constant D0.
• * This relationship suggests that quantum behavior of the macrodevice-object system may be revealed during regular measurements.

Impact:

• * Provides a new understanding of measurement variability and its fundamental relations.
• * Suggests a potential link between macroscopic measurement properties and quantum phenomena.
• * Offers a novel approach to analyzing experimental data and understanding measurement uncertainties.