Page 26 - 10-21-2019 Final English Edition, the Book with Ch. 46 Added by James H Hong. (1)
P. 26

time
                   x= distance distance k = elastic coefficient angle = angle r=

                   radius = radius

                   Derive a Derivation 1: 1/2 mv^2 = E ;; v = (2E/m)^(1/2) = x/
                   time;; Time= x/ (2E/m)^1/2;; Time = (x^2/(2(1/2kx^2))^1/2

                   xm^1/2 = (m/k)^1/2;; If v=r angle/ time, x = r (2 Pi);; t= time =
                   2 pi (m/k)^1/2; Note:: angle= 2pi is a random hypothesis. Right

                   in math but wrong in physics 1/2mv^2= 1/2 kx^2 = E does not
                   apply in pendulum swing.

                   Derivation 2 Derivation 2: Another way 1/2mv^2 = E = 1/2

                   kx^2 ;; mv^2= kx^2;; mx^2/t^2 = kx^2 ;; m/t^2 = k;; t = time =
                   (m/k) ^1/2;;; If v=r angle/ time x = r (2 pi);; t= time = 2 pi
                   (m/k)^1/ 2;; Note:: angle= 2pi is a random hypothesis. Right in

                   math but wrong in physics 1/2mv^2= 1/2 kx^2 = E does not
                   apply in pendulum swing.

                   The single pendulum period derivation is based on energy = 1/2

                   mv^2 (kinetic energy) = 1/2 kx^2 (spring kinetic energy), but
                   the pendulum motion and linear motion are different. So the
                   formula does not hold and the deduction is incorrect. In

                   addition, the angle of the pendulum is not necessarily a full
                   circle (2 pi), so (2 Pi) is said incorrect.

                   The pendulum period formula, (which I wrote) should be –

                   Time = C1(L(initial angle)/mg). The simple pendulum period
                   formula should be the constant multiplied by (single pendulum

                   line length) multiplied by (starting pendulum angle) divided by
                   (mass) divided by (gravity acceleration).

                   6.3 Is the black hole a solution to general relativity?


                   When we say Solution, we mean one or more intersections of
                   two formulas. For example, the intersection of the two formulas

                   y=x and y= -x is (0,0), which is the solution of the two formulas.
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