top of page

August 25th, update information (2).

  • kyonissho
  • Aug 25
  • 1 min read

Article:


No.3188. Planck Constant in Trigonometric Functions.


Update:


from


cos^-1(ħ) = π/2 | ħ = reduced Planck constant Dirac's constant

cos(ħ) = 1 | cos^-1(ħ) : cos(ħ) = 90° : 0°

sin^-1(ħ) = 1.054571726x10^(-34) | Dirac's constant itself,

sin(ħ) = 1.054571726x10^(-34) | sin^-1(ħ) : sin(ħ) = 1 : 1

tan^-1(ħ) = 1.054571726x10^(-34) | tan^1(ħ), tan(ħ), sin^-1(ħ)

tan(ħ) = 1.054571726x10^(-34) | and sin(ħ) = the constant.


Very impressive, powerful and practicable constant.


to


Misjudgement:

(cos^-1(ħ) = π/2 | ħ = reduced Planck constant Dirac's constant

cos(ħ) = 1 | cos^-1(ħ) : cos(ħ) = 90° : 0°

sin^-1(ħ) = 1.054571726x10^(-34) | Dirac's constant itself,

sin(ħ) = 1.054571726x10^(-34) | sin^-1(ħ) : sin(ħ) = 1 : 1

tan^-1(ħ) = 1.054571726x10^(-34) | tan^1(ħ), tan(ħ), sin^-1(ħ)

tan(ħ) = 1.054571726x10^(-34) | and sin(ħ) = the constant.


Very impressive, powerful and practicable constant.)


Correct judgement:

Above calculation was derived because of ħ ≒ 0 by my calculator. Although a enough small number, but it is great proportion constant, may make coordinates far from trigonometric function's center.


Fig.1.1. In order to consider shifting centers in the ħ reaction. The assumed sphere moving energy is great.
Fig.1.1. In order to consider shifting centers in the ħ reaction. The assumed sphere moving energy is great.

Another assumption:

R^1 of linearly independent existence isn't everywhere according to ħ, because there is -gravity.



(C) Copyright 2025 Kiyom Nishio (Kyo Nissho). All rights reserved.


Comments


 

© 2025 Kiyom Nishio (Kyo Nissho). All rights reserved.

 

bottom of page