The science of information and its effects upon timespace, as opposed to physics, which deals only with the effects of matter and energy.

Information, the third property of the quantum waves that also define matter and energy, defines physical and temporal structures within time and space. Any waveform has 3 properties: amplitude, frequency, and harmonics, or timbre. Amplitude corresponds to the energy of the wave; the higher the amplitude, the greater the energy. Frequency corresponds to the mass of the wave; low-frequency EM radiation is said to be wave-like (exhibiting energy-like behaviour) and high-frequency radiation is said to be particle-like (exhibiting mass-like behaviour). When the frequency of an EM wave becomes so high that its wavelength (the reciprocal of the frequency) is less than the universal quantum length constant /h, (also known as the Planck-Wheeler length), it becomes a boson, or elemental particle of matter. Amplitude and frequency are qualitative measures; that is, they can be measured as a quantity on a numerical scale.

Information, on the other hand, is qualitative; that is, it can be defined only in terms of the relationship between values as in a mathematical formula or equation. An example of extracting the information component of a wave is a Fourier equation, by which the wave can be dissected into its multiple frequency/amplitude sine wave components. This equation thus represents the harmonic, or informational, component of the wav...