- Principles of Physical Complexity (2012)
- Dedication
- Abstract
- Introduction
- Hypotheses
- Logic (order)
- Method
- First principles
- Axiomatic properties
- Basic properties
- Simple properties
- Complex properties
- monocomplex properties
- coherence, course, particle & process
- gravitation, string (wave), actual & virtual state
- appearance, organization & variation
- bicomplex properties
- supercomplex properties
- monocomplex properties
- Phenomena
- Science
- Conclusions
- General conclusions
- Literature references
- Table: axiomatic & basic properties
- Table: spacetime dimensions
- Scheme: simple properties
- Scheme: complex properties
- Table: physical correlations
- Table: physical correlations (extract)
- SI-Units
- Author
- Copyright©
Principles of Physical Complexity by Jos Koomen (Memes Ltd) - Complex Problem Solutions
absolute eq. 1 virtual state
Virtual state: basic quantifiers (left) & absolute equation 1 (right)
- Phenomenal former or future absolute virtual state (VS) is supposed to be quantified by its any directional or 3d-time volume (t3) relative to its absolute mass (m), absolute temperature (T) and 3D-spacevolume (l3) (see: figures above, virtual state//definition & ...//basic properties, and physical corr. (extract)//basic properties (1-4) & virtual state (54)), or
VS = time volume/(absolute mass x absolute temperature x space volume)
= t3/(mTl3)
- Together, phenomenal monocomplex absolute actual and virtual state are thought to underlie phenomenal absolute physical state, i.e. absolute actual state-virtual-state duality bicomplexly (see: virtual state//complex correlations & physical state//absolute equation).
Internet resources & literature references
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