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Expressions Showing a Relationship between Quantity and Quality
Updated  07/30/2008

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• Quan × Quan => Qual  ; Unsubordinate Fact
• Quan(a) × Quan(b) = > Qual(C)
  • Possible Bottom Up System/Management Application
  • 21 × 31 => C6
     
  • 2Apple × 3Apple => C6 ; Gives unique Qualitative result with a numeric correlation, not just 'Six Apples'!
     
  • 21 × 31 => 6c ; 6 = C or 6 = Qual ; Numeric factoring implies a resultant qualitative state with a Numeric constant, for any Item(s) and Event(s). Applications available in Information Science Programming and as a consequence also in Mathematics.  By using computers to model new existential relationships based on The Quantitative and Qualitative relationship and document them with Mathematics and Algorithms. 
  • Another application would be a purely mathematical one. Study the significance of numerology or just significance of numbers. Maybe numbers do have significance in themselves?
  • 11 × 11 => Qualc;  Also significant when existential time is considered. In this case there is a resultant Qualitative state, although when considered in a Numeric context only it would not said to be so.  This particular expression could have different use in Information Science Programming than the "non identity" expression mentioned above.
  • 21 × 31 => Cc

• (N1 + N2 + N3) × (A + B + C)
• A = Not A
• 1 × 1 = > 1x
• (A + B ) (A + B)
• 1 + 1 + 1 + 1....+ NNx
•  1 Sheep + 1 Ram ( Sheep + Not Sheep + Ram + Not Ram)
• 1A + 1B => 1 (A + Not A + B + Not B)
• ((A + Not A)1 / (B + Not B) 2 )× ((B + Not B)3  /  (A + Not A)4 )
• 1c = 2 c = 3c ........=  ∞c
• X1 + X2 + X3 = >  Not (X1 × X2 × X3)  × (X1 × X2 × X3) × (X1 + X2 + X3) /  Not (X1 × X2 × X3)  × (X1 × X2 × X3)
• Every (a) = Any (a) = Some (a) = Non (a) + Every (b) = Any (b) = Some (b) = Non (b) =>  Gives unique qualitative result  for any System a and b.