Physics, asked by yoga3527, 11 months ago

Evaluate d/dx (1+tan x/1-ran x )

Answers

Answered by mmainak968
0

Answer:

1

+

tan

(

x

)

1

tan

(

x

)

 

Differentiate using the Quotient Rule which states that  

d

d

x

[

f

(

x

)

g

(

x

)

]

is  

g

(

x

)

d

d

x

[

f

(

x

)

]

f

(

x

)

d

d

x

[

g

(

x

)

]

g

(

x

)

2

where  

f

(

x

)

=

1

+

tan

(

x

)

and  

g

(

x

)

=

1

tan

(

x

)

.

(

1

tan

(

x

)

)

d

d

x

[

1

+

tan

(

x

)

]

(

1

+

tan

(

x

)

)

d

d

x

[

1

tan

(

x

)

]

(

1

tan

(

x

)

)

2

Differentiate.

Tap for fewer steps...

By the Sum Rule, the derivative of  

1

+

tan

(

x

)

with respect to  

x

is  

d

d

x

[

1

]

+

d

d

x

[

tan

(

x

)

]

.

(

1

tan

(

x

)

)

(

d

d

x

[

1

]

+

d

d

x

[

tan

(

x

)

]

)

(

1

+

tan

(

x

)

)

d

d

x

[

1

tan

(

x

)

]

(

1

tan

(

x

)

)

2

Since  

1

is constant with respect to  

x

, the derivative of  

1

with respect to  

x

is  

0

.

(

1

tan

(

x

)

)

(

0

+

d

d

x

[

tan

(

x

)

]

)

(

1

+

tan

(

x

)

)

d

d

x

[

1

tan

(

x

)

]

(

1

tan

(

x

)

)

2

Add  

0

and  

d

d

x

[

tan

(

x

)

]

.

(

1

tan

(

x

)

)

d

d

x

[

tan

(

x

)

]

(

1

+

tan

(

x

)

)

d

d

x

[

1

tan

(

x

)

]

(

1

tan

(

x

)

)

2

The derivative of  

tan

(

x

)

with respect to  

x

is  

sec

2

(

x

)

.

(

1

tan

(

x

)

)

sec

2

(

x

)

(

1

+

tan

(

x

)

)

d

d

x

[

1

tan

(

x

)

]

(

1

tan

(

x

)

)

2

Differentiate.

Tap for fewer steps...

By the Sum Rule, the derivative of  

1

tan

(

x

)

with respect to  

x

is  

d

d

x

[

1

]

+

d

d

x

[

tan

(

x

)

]

.

(

1

tan

(

x

)

)

sec

2

(

x

)

(

1

+

tan

(

x

)

)

(

d

d

x

[

1

]

+

d

d

x

[

tan

(

x

)

]

)

(

1

tan

(

x

)

)

2

Since  

1

is constant with respect to  

x

, the derivative of  

1

with respect to  

x

is  

0

.

(

1

tan

(

x

)

)

sec

2

(

x

)

(

1

+

tan

(

x

)

)

(

0

+

d

d

x

[

tan

(

x

)

]

)

(

1

tan

(

x

)

)

2

Add  

0

and  

d

d

x

[

tan

(

x

)

]

.

(

1

tan

(

x

)

)

sec

2

(

x

)

(

1

+

tan

(

x

)

)

d

d

x

[

tan

(

x

)

]

(

1

tan

(

x

)

)

2

Since  

1

is constant with respect to  

x

, the derivative of  

tan

(

x

)

with respect to  

x

is  

d

d

x

[

tan

(

x

)

]

.

(

1

tan

(

x

)

)

sec

2

(

x

)

(

1

+

tan

(

x

)

)

(

d

d

x

[

tan

(

x

)

]

)

(

1

tan

(

x

)

)

2

Multiply.

Tap for more steps...

(

1

tan

(

x

)

)

sec

2

(

x

)

+

(

1

+

tan

(

x

)

)

d

d

x

[

tan

(

x

)

]

(

1

tan

(

x

)

)

2

The derivative of  

tan

(

x

)

with respect to  

x

is  

sec

2

(

x

)

.

(

1

tan

(

x

)

)

sec

2

(

x

)

+

(

1

+

tan

(

x

)

)

sec

2

(

x

)

(

1

tan

(

x

)

)

2

Simplify.

Tap for fewer steps...

Apply the distributive property.

1

sec

2

(

x

)

tan

(

x

)

sec

2

(

x

)

+

(

1

+

tan

(

x

)

)

sec

2

(

x

)

(

1

tan

(

x

)

)

2

Apply the distributive property.

1

sec

2

(

x

)

tan

(

x

)

sec

2

(

x

)

+

1

sec

2

(

x

)

+

tan

(

x

)

sec

2

(

x

)

(

1

tan

(

x

)

)

2

Simplify the numerator.

Tap for more steps...

2

sec

2

(

x

)

(

1

tan

(

x

)

)

2

Answered by rabinakhatoon2001
0

Answer:

Explanation:

1st step tan change into sin and cosx term then differentiate

Formula d(u/v)/dx=(du/dx*v-dv/dx*u)/vsquare

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