(1/. a)arcsec(u/. a)+c =
To simplify the expression, we can start by using the trigonometric identity for the arcsecant function:
arcsec(x) = arccos(1/x)
Applying this identity to (1/a)arcsec(u/a), we get:
(1/a)arcsec(u/a) = (1/a)arccos(a/u)
Next, we can simplify further by multiplying the numerator and denominator of the arccos term by a to get:
(1/a)arccos(a/u) = (1/a)arccos(a/u) * a/a = (1/a)arccos(a^2/au)
Now, let’s rewrite the expression (1/a)arccos(a^2/au) + c in a different form
To simplify the expression, we can start by using the trigonometric identity for the arcsecant function:
arcsec(x) = arccos(1/x)
Applying this identity to (1/a)arcsec(u/a), we get:
(1/a)arcsec(u/a) = (1/a)arccos(a/u)
Next, we can simplify further by multiplying the numerator and denominator of the arccos term by a to get:
(1/a)arccos(a/u) = (1/a)arccos(a/u) * a/a = (1/a)arccos(a^2/au)
Now, let’s rewrite the expression (1/a)arccos(a^2/au) + c in a different form. Since we know that arccos(x) + arcsin(x) = π/2, we can rewrite the expression as:
(1/a)arccos(a^2/au) + c = (1/a)(arccos(a^2/au) + arcsin(a^2/au)) + c
Using the sum of arcsin and arccos identity, the above expression becomes:
(1/a)(arccos(a^2/au) + arcsin(a^2/au)) + c = (1/a)arcsin((au – a^2)/au) + c
Thus, the simplified expression is:
(1/a)arcsec(u/a) + c = (1/a)arcsin((au – a^2)/au) + c
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