DC Coupled Single Supply Operation

Figures 1 and 2 show the recommended non-inverting

and inverting configurations for input signals that remain

above 0.8V DC.

Figure 1: Non-Inverting Configuration

Figure 2: Inverting Configuration

AC Coupled Single Supply Operation

Figures 3 and 4 show possible non-inverting and invert-

ing configurations for input signals that go below 0.8V

DC. The input is AC coupled to prevent the need for

level shifting the input signal at the source. The resistive

Figure 3: AC Coupled Non-Inverting Configuration

Figure 4: AC Coupled Inverting Configuration

Dual Supply Operation

The CLC5602 operates on dual supplies as well as

single supplies. The non-inverting and inverting configu-

rations are shown in Figures 5 and 6.

Figure 5: Dual Supply Non-Inverting Configuration

Figure 6: Dual Supply Inverting Configuration

7

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+

-

1/2

CLC5602

0.1

µF

6.8

µF

3

2

4

8

1

V

V

A1

R

R

o

in

v

f

g

== +

+

consumption and maximum

output swing.

+

-

0.1

µF

6.8

µF

4

V

V

A

R

R

o

in

v

f

g

== −

+

3

2

for non-inverting input.

consumption and maximum

output swing.

+

-

1/2

CLC5602

8

1

+

-

0.1

µF

6.8

µF

R

4

C

R

+

VV

1

R

R

2.5

o

in

f

g

=+











 +

low frequency cutoff

1

2R C

, where: R

R

2

in

c

in

==

π

>>

3

2

2

1/2

CLC5602

8

1

1

8

+

-

0.1

µF

6.8

µF

R

4

R

+

VV

R

R

2.5

o

in

f

g

=−











 +

low frequency cutoff

1

2R C

gc

=

π

3

2

2

1/2

CLC5602

+

-

0.1

µF

6.8

µF

0.1

µF

6.8

µF

3

2

4

+

+

V

V

A1

R

R

o

in

v

f

g

== +

1/2

CLC5602

8

1

+

-

0.1

µF

6.8

µF

0.1

µF

6.8

µF

3

2

4

+

+

for the non-inverting input.

V

V

A

R

R

o

in

v

f

g

== −

1/2

CLC5602

8

1