INTRODUCTION TO MULTI-COMBINATIONAL CALCULUS
One of the most useful concept which I
am developing is called relative comparison derivative. The concept is to help
physicist, economist, scientist and engineer to compare different rate of
changes of quantitative information as a fitted models for predictive purpose.
POWER RULE OF RELATIVE DERIVATIVE
For the multi-combinational derivative
functions f′
(xo * x1 *---- * xr-1)
and
f′ (x1*x2*-----* xr), there exist unique initial derivative f′ (xo) ,which is in relative comparison of the final derivative f ′(xr) and is given as;
f′ (x1*x2*-----* xr), there exist unique initial derivative f′ (xo) ,which is in relative comparison of the final derivative f ′(xr) and is given as;
f′(xo)
= f′ (xr) [f′ (xo*x1---*xr-1)/ f′(x1*x2*------*xr)]
EXAMPLE
The gross domestic product (GDP) of
Ghana, Nigeria, USA, and Indian was
N′
(to t1 t2) = to2 t12
t22 + 106
billion dollars after 2007
N′(t1
t2 t3) = t21 t22
t23 + 106 billion dollars
after 2007
(a) At
what rate was the GDP changing with respect to the multiple time to
t1 t2 and t1 t2 t3.
[take to t1
t2 = 8 and t1 t2
t3 = 6]
(b) If
the gross domestic product of Ghana is N (to) = t2o - 5 to
+ 10 and change respectively to time to and
if the gross domestic product occurs at time to, t1, t2
and t3 for Ghana, Nigeria, USA and Indian respectively; Find the
rate of change of GDP in Indian.
(Take to =
3)
SOLUTION
(a)
N′
( to t1 t2 ) = 8 ( to t1
t2 )
N′ (t1
t2 t3) = 8 (t1 t2 t3)
(b) Applying
power rule of relative comparison we have
N′(to)
= N′(t3) [N′ (to t1 t2 )/N′ (t1
t2 t3 )]
But N (to)
= 2 to -5
N′(to) = 2(3) – 5
= 1
1 = N′ (t3)
[(8(8))/8(6)]
1 = N′ (t3)
(1.33)
N′(t3)
= 1/1.33 = 0.75 per month after 2007
No comments:
Post a Comment