ANALOG DEVICES AD8213 Service Manual

Dual, High Voltage

–

–

www.BDTIC.com/ADI

FEATURES

±4000 V HBM ESD
High common-mode voltage range

−2 V to +65 V operating

−3 V to +68 V survival
Buffered output voltage
Wide operating temperature range

10-lead MSOP: −40°C to +125°C

Excellent ac and dc performance

3 μV/°C typical offset drift

−10 ppm/°C typical gain drift

120 dB typical CMRR at dc

APPLICATIONS

High-side current sensing

Motor controls
Transmission controls
Diesel injection controls
Engine management
Suspension controls
Vehicle dynamic controls
DC-to-DC converters

Current Shunt Monitor

AD8213

FUNCTIONAL BLOCK DIAGRAM

OUT2

IN2 +IN2

PROPRIETARY

OFFSET

CIRCUITRY

G = +20

A2

CF2

Figure 1.

A1

PROPRIETARY

OFFSET

CIRCUITRY

CF1GND

IN1+IN1

G = +20

AD8213

V+

OUT1

06639-001

GENERAL DESCRIPTION

The AD8213 is a dual-channel, precision current sense amplifier. It
features a set gain of 20 V/V, with a maximum ±0.5% gain error
over the entire temperature range. The buffered output voltage
directly interfaces with any typical converter. Excellent common­mode rejection from −2 V to +65 V, is independent of the 5 V
supply. The AD8213 performs unidirectional current measure­ments across a shunt resistor in a variety of industrial and
automotive applications, such as motor control, solenoid
control, or battery management.

Special circuitry is devoted to output linearity being maintained
t

hroughout the input differential voltage range of 0 mV to 250 mV,
regardless of the common-mode voltage present. The AD8213
also features additional pins that allow the user to low-pass filter
the input signal before amplifying, via an external capacitor to
ground. The AD8213 has an operating temperature range of

−40ºC to +125ºC and is offered in a small 10-lead MSOP package.

Rev. 0

Information furnished by Analog Devices is believed to be accurate and reliable. However, no
responsibility is assumed by Anal og Devices for its use, nor for any infringements of patents or ot her
rights of third parties that may result from its use. Specifications subject to change without notice. No
license is granted by implication or otherwise under any patent or patent rights of Analog Devices.
Trademarks and registered trademarks are the property of their respective owners.

One Technology Way, P.O. Box 9106, Norwood, MA 02062-9106, U.S.A.
Tel: [phone] www.analog.com
Fax: [phone] ©2007 Analog Devices, Inc. All rights reserved.

AD8213

www.BDTIC.com/ADI

TABLE OF CONTENTS

Features.............................................................................................. 1

Applications....................................................................................... 1

Functional Block Diagram .............................................................. 1

General Description ......................................................................... 1

Revision History ............................................................................... 2

Specifications..................................................................................... 3

Absolute Maximum Ratings............................................................ 4

ESD Caution.................................................................................. 4

Pin Configuration and Function Descriptions............................. 5

Typical Performance Characteristics ............................................. 6

Theory of Operation ...................................................................... 10

REVISION HISTORY

5/07—Revision 0: Initial Version

Application Notes........................................................................... 11

Output Linearity......................................................................... 11

Low-Pass Filtering...................................................................... 11

Applications Information.............................................................. 12

High-Side Current Sense with a Low-Side Switch................. 12

High-Side Current Sensing....................................................... 12

Low-Side Current Sensing ........................................................ 12

Bidirectional Current Sensing.................................................. 13

Outline Dimensions....................................................................... 14

Ordering Guide .......................................................................... 14

Rev. 0 | Page 2 of 16

AD8213

www.BDTIC.com/ADI

SPECIFICATIONS

T

= operating temperature range, VS = 5 V, RL = 25 kΩ (RL is the output load resistor), unless otherwise noted.

OPR

Table 1.

Parameter Min Typ Max Unit Conditions
GAIN

Initial 20 V/V

Accuracy ±0.25 % VO ≥ 0.1 V dc
Accuracy Over Temperature ±0.5 % T
Gain vs. Temperature 0 −10 −25

VOLTAGE OFFSET

Offset Voltage (RTI) ±1 mV 25°C
Over Temperature (RTI) ±2.2 mV T
Offset Drift ±12

INPUT

Input Impedance

Differential 5 kΩ
Common Mode 5 MΩ V common mode > 5 V

3.5 kΩ V common mode < 5 V
Common-Mode Input Voltage Range −2 +65 V Common mode continuous
Differential Input Voltage Range 250 mV Differential input voltage
Common-Mode Rejection 100 120 dB T
80 90 dB T

OUTPUT

Output Voltage Range Low 0.1 0.05 V
Output Voltage Range High 4.95 4.9 V
Output Impedance 2 Ω

FILTER RESISTOR 18 20 22 kΩ
DYNAMIC RESPONSE

Small Signal −3 dB Bandwidth 500 kHz
Slew Rate 4.5 V/μs

2.7 V/μs

NOISE

0.1 Hz to 10 Hz, RTI 7 μV p-p
Spectral Density, 1 kHz, RTI 70

POWER SUPPLY

Operating Range 4.5 5.5 V
Quiescent Current Over Temperature 2.5 3.75 mA

Power Supply Rejection Ratio 76 dB

TEMPERATURE RANGE

For Specified Performance −40 +125

1

When the input common mode is less than 5 V, the supply current increases. This can be calculated by IS = −0.52(VCM) + 4.9 (see Figure 11).

AD8213

OPR

ppm/°

μV/°

C

nV/√Hz

°C

C

OPR

T

OPR

, f = DC, VCM > 5 V (see Figure 5)

OPR

, f = DC, VCM < 5 V (see Figure 5)

OPR

C

access to resistor for low-pass filter

F

C

= 20 pF, no filter capacitor (CF)

OUT

C

= 20 pF, CF = 20 pF

OUT

> 5 V, per amplifier1, total supply

V

CM

current for two channels

Rev. 0 | Page 3 of 16

AD8213

www.BDTIC.com/ADI

ABSOLUTE MAXIMUM RATINGS

Table 2.

Parameter Rating

Supply Voltage 12.5 V
Continuous Input Voltage −3 V to +68 V
Reverse Supply Voltage −0.3 V
HBM (Human Body Model) ESD Rating ±4000 V
CDM (Charged Device Model) ESD Rating ±1000 V
Operating Temperature Range −40°C to +125°C
Storage Temperature Range −65°C to +150°C
Output Short-Circuit Duration Indefinite

Stresses above those listed under Absolute Maximum Ratings
ma

y cause permanent damage to the device. This is a stress
rating only; functional operation of the device at these or any
other conditions above those indicated in the operational
section of this specification is not implied. Exposure to absolute
maximum rating conditions for extended periods may affect
device reliability.

ESD CAUTION

Rev. 0 | Page 4 of 16

AD8213

www.BDTIC.com/ADI

PIN CONFIGURATION AND FUNCTION DESCRIPTIONS

1

2

38

47

10

9

–IN2

1

+IN2

2

GND

OUT2

CF2

AD8213

3

TOP VIEW

(Not to Scale)

4

5

Figure 3. Pin Configuration

–IN1

10

+IN1

9

V+

8

7

OUT1

CF1

6

06639-003

5

Figure 2. Metallization Diagram

6

06639-002

Table 3. Pin Function Descriptions

Pin No. Mnemonic X Y Description

1 −IN2 −401 677 Inverting input of the second channel.
2 +IN2 −401 510 Noninverting input of the second channel.
3 GND −401 −53 Ground.
4 OUT2 −394 −500 Output of the second channel.
5 CF2 −448 −768 Low-pass filter pin for the second channel.
6 CF1 448 −768 Low-pass filter pin for the first channel.
7 OUT1 394 −500 Output of the first channel.
8 V+ 401 −61 Supply.
9 +IN1 401 510 Noninverting input of the first channel.
10 −IN1 401 677 Inverting input of the first channel.

Rev. 0 | Page 5 of 16

AD8213

–

www.BDTIC.com/ADI

TYPICAL PERFORMANCE CHARACTERISTICS

0.8

0.7

0.6

0.5

0.4

0.3

0.2

0.1

(mV)

0

OSI

–0.1

V

–0.2

–0.3

–0.4

–0.5

–0.6

–0.7

–0.8

Figure 4. Typical Offset Drift

130

COMMON-MO DE VOLTAG E > 5V

120

110

100

COMMON-MO DE VOLTAG E < 5V

90

CMRR (dB)

80

70

60

50

10 1M100k10k1k100

Figure 5. CMRR vs. Frequency

2500

2000

1500

1000

500

0

–500

GAIN ERROR (ppm)

–1000

–1500

–2000

–2500

TEMPERATURE (° C)

FREQUENCY (Hz)

TEMPERATURE (° C)

Figure 6. Typical Gain Drift

120–40 0–20 20406080100

06639-104

6639-005

120–40 0–20 20406080100

06639-102

40

35

30

25

20

15

10

5

0

–5

GAIN (dB)

–10

–15

–20

–25

–30

–35

–40

10k 100k 1M 10M

FREQUENCY (Hz)

06639-008

Figure 7. Typical Small Signal Bandwidth

= 200 mV p-p)

(V

OUT

10

9

8

7

6

5

4

3

OUTPUT ERROR ( %)

2

1

0

(% ERROR OF THE IDEAL OUTPUT VALUE)

–1

029590858075706560555045403530252015105

DIFFERENTIAL INPUT VOLTAGE (mV)

50

06639-013

Figure 8. Total Output Error vs. Differential Input Voltage

475

–480

–485

–490

–495

–500

–505

–510

–515

–520

INPUT BIAS CURRENT (nA)

–525

–530

–535

02

DIFFERENTIAL INPUT VOLTAGE (mV)

+IN

–IN

225200175150125100755025

50

06639-010

Figure 9. Input Bias Current vs. Differential Input Voltage

= 0 V) (Per Channel)

(V

CM

Rev. 0 | Page 6 of 16

AD8213

www.BDTIC.com/ADI

0.2

0

100mV/DIV

–0.2

–0.4

INPUT

OUTPUT

–0.6

–0.8

INPUT BIAS CURRENT (mA)

–1.0

–1.2

–5 6555453525155

INPUT COMMO N-MODE VO LTAGE (V)

Figure 10. Input Bias Current vs. Common-Mode Voltage

(Per Input)

7.0

6.5

6.0

5.5

5.0

4.5

4.0

3.5

3.0

SUPPLY CURRENT (mA)

2.5

2.0

1.5

1.0
–4 –2 0 2 4 6 8 65

COMMON-MODE VOLTAGE (V)

Figure 11. Supply Current vs. Common-Mode Voltage

1V/DIV, CF = 20pF

1V/DIV, C

06639-011

= 100pF

F

TIME (2µs/DIV)

OUTPUT

06639-015

Figure 13. Rise Time

200mV/DIV

INPUT

2V/DIV, C

= 20pF

F

OUTPUT

06639-012

TIME (1µs/DIV)

06639-016

Figure 14. Differential Overload Recovery (Falling)

100mV/DIV

1V/DIV, CF = 20pF

1V/DIV, C

= 100pF

F

INPUT

OUTPUT

OUTPUT

TIME (2µs/DIV)

Figure 12. Fall Time

06639-014

Rev. 0 | Page 7 of 16

INPUT

200mV/DIV

OUTPUT

= 20pF

2V/DIV, C

F

TIME (1µs/DIV)

Figure 15. Differential Overload Recovery (Rising)

06639-017

AD8213

www.BDTIC.com/ADI

12

2V/DIV

0.01/DIV

TIME (5µs/DIV)

Figure 16. Settling Time (Falling)

2V/DIV

0.01/DIV

TIME (5µs/DIV)

Figure 17. Settling Time (Rising)

12

11

10

9

8

7

6

5

4

3

2

MAXIMUM OUT PUT SINK CURRENT ( mA)

1

0

–40 –20 0 20 40 60 80 100 120 140

TEMPERATURE (° C)

Figure 18. Output Sink Current vs. Temperature

(Per Chan

nel)

06639-105

06639-106

06639-020

11

10

9

8

7

6

5

4

3

2

1

MAXIMUM OUT PUT SOURCE CURRENT (mA)

0

–40 –20 0 20 40 60 80 100 120 140

TEMPERATURE (° C)

Figure 19. Output Source Current vs. Temperature

(Per Chan

5.0

4.9

4.8

4.7

4.6

4.5

4.4

4.3

4.2

4.1

4.0

3.9

OUTPUT VO LTAGE RANG E (V)

3.8

3.7

3.6

3.5

077.06.56.05.55.04.54.03.53.02.52.01.51.00.5

OUTPUT SO URCE CURRENT (mA)

nel)

Figure 20. Output Voltage Range vs. Output Source Current

(Per Chan

2.0

1.8

1.6

1.4

1.2

1.0

0.8

0.6

0.4

0.2

OUTPUT VO LTAGE RANG E FROM GND (V)

0

01987654321

OUTPUT SI NK CURRENT (mA)

Figure 21. Output Voltage Range from

nel)

GND vs. Output Sink Current

(Per Channel)

06639-021

.5

06639-023

0

06639-024

Rev. 0 | Page 8 of 16

AD8213

www.BDTIC.com/ADI

1000

800

2100

1800

1500

TEMP = –40°C

TEMP = +25°C

TEMP = +125°C

600

COUNT

400

200

0

–15 151050–5–10

1400

1200

1000

800

COUNT

600

400

200

0

VOS (µV/°C)

Figure 22. Offset Drift Distribution (μV/°C)

(Temp

erature Range = −40°C to +125°C)

GAIN DRIFT (ppm/°C)

Figure 23. Gain Drift Distribution (ppm/°C)

(Temperature Range = −40°C to +125°C)

1200

COUNT

900

600

300

0

06639-006

VOS (mV)

2.0–2.0 –1.5 –1.0 –0.5 0 0.5 1.0 1.5

06639-103

Figure 24. Offset Distribution (mV)

= 6 V)

(V

CM

0–3–6–9–12–15–18–21–24

06639-101

Rev. 0 | Page 9 of 16

AD8213

O

www.BDTIC.com/ADI

THEORY OF OPERATION

In typical applications, the AD8213 amplifies a small differential
input voltage generated by the load current flowing through a
shunt resistor. The AD8213 rejects high common-mode
voltages (up to 65 V) and provides a ground referenced, buffered
output that interfaces with an analog-to-digital converter (ADC).
Figure 25 shows a simplified schematic of the AD8213.

The following explanation refers exclusively to Channel 1 of the
AD8213,

however, the same explanation applies to Channel 2.

A load current flowing through the external shunt resistor
p

roduces a voltage at the input terminals of the AD8213. The
input terminals are connected to Amplifier A1 by Resistor R1
and Resistor R1
input impedance is held to (V
negligible current flows through Resistor R1

. The inverting terminal, which has very high

(2)

CM

) – (I

SHUNT

× R

SHUNT

. Amplifier A1

(2)

), since

(1)

forces the noninverting input to the same potential. Therefore,
the current that flows through Resistor R1

I

IN1

= (I

SHUNT1

× R

SHUNT1

)/R1

(1)

, is equal to

(1)

I

SHUNT2

R

SHUNT2

R2

(1)

R2

(2)

I

IN2IIN1

This current (I
output buffer amplifier has a gain of 20 V/V, and offers excellent
accuracy as the internal gain setting resistors are precision
trimmed to within 0.01% matching. The resulting output
voltage is equal to

V

OUT1

Prior to the buffer amplifier, a precision-trimmed 20 kΩ re
is available to perform low-pass filtering of the input signal
prior to the amplification stage. This means that the noise of the
input signal is not amplified, but rejected, resulting in a more
precise output signal that will directly interface with a converter.
A capacitor from the CF1 pin to GND, will result in a low-pass
filter with a corner frequency of

f

3

−

dB

I

SHUNT1

R

SHUNT1

R1

(1)

) is converted back to a voltage via R

IN1

= (I

=

R1

× R

SHUNT1

1

()

C

200002

π

(2)

SHUNT1

FILTER

) × 20

OUT1

. The

sistor

UT2 = (I

SHUNT2

× R

SHUNT2

) × 20

PROPRIETARY

OFFSET

CIRCUITRY

G = +20

A2

R

OUT2

CF2

Figure 25. Simplifi

Q2

A1

Q1

20kΩ20kΩ

R

OUT1

ed Schematic

PROPRIETARY

OFFSET

CIRCUITRY

G = +20

AD8213

CF1GND

V+

OUT1 = (I

SHUNT1

× R

SHUNT1

) × 20

06639-028

Rev. 0 | Page 10 of 16

AD8213

V

www.BDTIC.com/ADI

APPLICATION NOTES

OUTPUT LINEARITY

In all current sensing applications, and especially in automotive
and industrial environments where the common-mode voltage
can vary significantly, it is important that the current sensor
maintain the specified output linearity, regardless of the input
differential or common-mode voltage. The AD8213 contains
specific circuitry on the input stage, which ensures that even
when the differential input voltage is very small, and the
common-mode voltage is also low (below the 5 V supply), the
input to output linearity is maintained.

put differential voltage versus the corresponding output

in
voltage at different common modes.

220

200

180

160

140

120

(mV)

100

OUT

V

V

@ VCM = 0V

OUT

80

60

40

20

0

012345678910

Figure 26. Gain Linearity Due to Differential and Common-Mode Voltage

IDEAL V

OUT

VIN DIFFERENTIAL (mV)

The AD8213 provides a correct output voltage, regardless of the
common mode, when the input differential is at least 2 mV.
This is due to the voltage range of the output amplifier that can
go as low as 33 mV typical. The specified minimum output
amplifier voltage is 100 mV in order to provide sufficient
guardbands. The ability of the AD8213 to work with very small
differential inputs regardless of the common-mode voltage,
allows for more dynamic range, accuracy, and flexibility in any
current sensing application.

Figure 26 displays the

V

@ VCM = 65V

OUT

06639-029

LOW-PASS FILTERING

In typical applications, such as motor and solenoid current
sensing, filtering the differential input signal of the AD8213
could be beneficial in reducing differential common-mode
noise as well as transients and current ripples flowing through
the input shunt resistor. Typically, such a filter can be imple­mented by adding a resistor in series with each input and a
capacitor directly between the input pins. However, the AD8213
features a filter pin available after the input stage, but before the
final amplification stage. The user can connect a capacitor to
ground, making a low-pass filter with the internal precision­trimmed 20 kΩ resistor. This means the no gain or CMRR
errors are introduced by adding resistors at the input of the
AD8213.

The 3 dB frequency of this low-pass filter is calculated using the
following formula:

It is recommended that in order to prevent output chatter due
t

o noise potentially entering through the filter pin and coupling
to the output, a capacitor is always placed from the filter pin to
GND. This can be a ≈20 pF capacitor in cases when all of the
bandwidth of the AD8213 is needed in the application.

Figure 27 shows the typical connection.

GND

I

SHUNT1

R

SHUNT1

R1

(1)

A1

20kΩ20kΩ

I

SHUNT2

R

SHUNT2

R2

(1)

PROPRIETARY

OFFSET

CIRCUIT RY

G = +20

CF2 CF1

CAP2 CAP1

=

f

3

−

dB

R2

(2)

A2

Figure 27. Filter Capacitor Connections

1

()

C

200002

π

FILTER

R1

(2)

PROPRIETARY

OFFSET

CIRCUITRY

G = +20

AD8213

+

6639-030

Rev. 0 | Page 11 of 16

AD8213

www.BDTIC.com/ADI

APPLICATIONS INFORMATION

HIGH-SIDE CURRENT SENSE WITH A LOW-SIDE SWITCH

In such load control configurations, the PWM controlled switch
is ground referenced. An inductive load (solenoid) is tied to a
power supply. A resistive shunt is placed between the switch and
the load (see Figure 28). An advantage of placing the shunt on
t

he high side is that the entire current, including the recircu­lation current, can be measured, because the shunt remains in
the loop when the switch is off. In addition, diagnostics can be
enhanced because shorts to ground can be detected with the
shunt on the high side. In this circuit configuration, when the
switch is closed, the common-mode voltage moves down to
near the negative rail. When the switch is opened, the voltage
reversal across the inductive load causes the common-mode
voltage to be held one diode drop above the battery by the
clamp diode.

INDUCTIVE

BATTERY

CLAMP
DIODE

SWITCH

LOAD

SHUNT

1

2

3

4

5

AD8213

–IN2

+IN2

GND

OUT2

CF2

–IN1

+IN1

V+

OUT1

CF1

CAP1CAP2

Figure 28. Low-Side Switch

HIGH-SIDE CURRENT SENSING

In this configuration, the shunt resistor is referenced to the
battery. High voltage will be present at the inputs of the current
sense amplifier. In this mode, the recirculation current is again
measured and shorts to ground can be detected. When the
shunt is battery referenced the AD8213 produces a linear
ground referenced analog output. An

o provide an overcurrent detection signal in as little as 100 ns.

t
This feature will be useful in high current systems, where fast
shutdown in overcurrent conditions is essential.

INDUCTIVE
LOAD

10

9

8

7

6

CLAMP

DIODE

5V

SHUNT

BATTERY

SWITCH

AD8214 can also be used

OVERCURRENT

DETECTION ( <100ns)

8

–IN7NC6GND5OUT

AD8214

V

+IN3V

2

GND

AD8214

V

REG

3

–IN1 10

+IN1 9

V+ 8

OUT1

CF1

REG

+IN

CAP1

NC

4

8

7NC6

–IN

V

S

1

2

SHUNT

LOAD

5V

7

6

SWITCH

BATTERY

06639-032

S

1

OVERCURRENT

DETECTION (< 100ns)

5

OUT

NC

4

SHUNT

LOAD

BATTERY

SWITCH

CAP2

4

5

AD8213

–IN21

+IN22

GND3

OUT2

CF2

Figure 29. Battery Referenced Shunt Resistor

LOW-SIDE CURRENT SENSING

In systems where low-side current sensing is preferred, the

06639-031

AD8213 provides an integrated solution with great accuracy.
Ground noise is rejected, CMRR is typical higher than 90 dB, and
output linearity is not compromised, regardless of the input
differential voltage.

BATTERY

INDUCTIVE

CLAMP
DIODE

SWITCH

SHUNT

LOAD

1

2

3

4

5

AD8213

–IN2

+IN2

GND

OUT2

CF2

–IN1

+IN1

OUT1

CF1

10

9

V+

8

7

6

Figure 30. Ground Referenced Shunt Resistor

INDUCTIVE
LOAD

CLAMP

DIODE

5V

SWITCH

SHUNT

BATTERY

06639-033

Rev. 0 | Page 12 of 16

AD8213

www.BDTIC.com/ADI

BIDIRECTIONAL CURRENT SENSING

The AD8213 can also be configured to sense current in both
directions at the inputs. This configuration is useful in charge/
discharge applications. A typical connection diagram is shown
in

Figure 31. In this mode Channel 1 monitors I

Channel 2 monitors I

BATTERY

CHARGE

I

CHARGE

I

LOAD

R

SHUNT

.

LOAD CHARGER

AD8213

1

–IN2

2

+IN2

3

GND

4

OUT2

5

CF2

CF2 CF1

–IN1

+IN1

OUT1

CF1

10

9

5V

8

V+

7

6

Figure 31. Bidirectional Current Sensing

For applications requiring a bidirectional current measurement,
an optimal solution could be to use a single channel device,
which offers the same functionality as the previous circuit. The

AD8210 is a single channel current sensor featuring bidirec-

ional capability. The typical connection diagram for the

t
AD8210 in bidirectional applications is shown in

and

LOAD

Figure 32.

06639-034

BATTERY

I

CHARGE

I

LOAD

R

SHUNT

+IN –IN

LOAD CHARGER

V+

AD8210

0.1µF

1

OUTPUT

2

GND

V

G = +20

V

REF

REF

Figure 32. AD8210 in Bidirectional Applications

06639-035

Rev. 0 | Page 13 of 16

AD8213

www.BDTIC.com/ADI

OUTLINE DIMENSIONS

3.10

3.00

2.90

6

10

3.10

3.00

2.90

1

PIN 1

0.50 BSC

0.95

0.85

0.75

0.15

0.05

0.33

0.17

COPLANARITY

0.10

COMPLIANT TO JEDEC STANDARDS MO-187-BA

Figure 33. 10-Lead Mini Small Outline Package [MSOP]

ORDERING GUIDE

Model Temperature Range Package Description Package Option Branding

AD8213YRMZ
AD8213YRMZ-RL
AD8213YRMZ-RL7

1

Z = RoHS Compliant Part.

1

1

1

−40°C to +125°C 10-Lead MSOP RM-10 HOU

−40°C to +125°C 10-Lead MSOP, 13” Tape and Reel RM-10 HOU

−40°C to +125°C 10-Lead MSOP, 7” Tape and Reel RM-10 HOU

5.15

4.90

4.65

5

1.10 MAX

SEATING
PLANE

0.23

0.08

8°
0°

(RM-10)

Dimensions shown in millimeters

0.80

0.60

0.40

Rev. 0 | Page 14 of 16

AD8213

www.BDTIC.com/ADI

NOTES

Rev. 0 | Page 15 of 16

AD8213

www.BDTIC.com/ADI

NOTES

©2007 Analog Devices, Inc. All rights reserved. Trademarks and
registered trademarks are the property of their respective owners.
D06639-0-5/07(0)

Rev. 0 | Page 16 of 16