Category: Differential Calculus, Algebra
"Published in Newark, California, USA"
Find the derivative for
Solution:
Consider the given equation above
Take the derivative of the above equation with respect to x, we have
We can accept the above equation as a final answer but if you wish to substitute the value of hyperbolic cosine, you can also do that one. We know that
If
then
becomes
The other way of getting the derivative of the given equation is to eliminate the hyperbolic functions by substituting their equivalent value or identity. We know that
If
then substitute the value of hyperbolic sine of the above equation as follows
Take the derivative of the above equation with respect to x, we have
This website will show the principles of solving Math problems in Arithmetic, Algebra, Plane Geometry, Solid Geometry, Analytic Geometry, Trigonometry, Differential Calculus, Integral Calculus, Statistics, Differential Equations, Physics, Mechanics, Strength of Materials, and Chemical Engineering Math that we are using anywhere in everyday life. This website is also about the derivation of common formulas and equations. (Founded on September 28, 2012 in Newark, California, USA)
Friday, May 31, 2013
Thursday, May 30, 2013
Triple Integration
Category: Integral Calculus, Trigonometry
"Published in Newark, California, USA"
Evaluate
Solution:
Consider the given equation above
Integrate first the given function with respect to dz, as follows
Integrate the above equation with respect to dr, as follows
Integrate the above equation with respect to dθ, as follows
Substitute the limits and the final answer is
"Published in Newark, California, USA"
Evaluate
Solution:
Consider the given equation above
Integrate first the given function with respect to dz, as follows
Integrate the above equation with respect to dr, as follows
Integrate the above equation with respect to dθ, as follows
Substitute the limits and the final answer is
Wednesday, May 29, 2013
Double Integration
Category: Integral Calculus
"Published in Newark, California, USA"
Evaluate
Solution:
Consider the given equation above
Integrate first the given function with respect to dy, as follows
If u = y, then du = dy. The above equation can be integrated into inverse trigonometric function
Integrate the above equation with respect to dx, as follows
Substitute the limits and the final answer is
"Published in Newark, California, USA"
Evaluate
Solution:
Consider the given equation above
Integrate first the given function with respect to dy, as follows
If u = y, then du = dy. The above equation can be integrated into inverse trigonometric function
Integrate the above equation with respect to dx, as follows
Substitute the limits and the final answer is
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