LT1800CS5#TR_技术文档

LT1800

80MHz, 25V/µs Low Power

Rail-to-Rail Input and Output

Precision Op Amp

FEATURES

DESCRIPTION

TheLT^®1800isalowpower,highspeedrail-to-railinputand

outputoperationalampliﬁerwithexcellentDCperformance.

The LT1800 features reduced supply current, lower input

offset voltage, lower input bias current and higher DC gain

than other devices with comparable bandwidth.

n

Gain Bandwidth Product: 80MHz

n

Input Common Mode Range Includes Both Rails

n

Output Swings Rail-to-Rail

n

Low Quiescent Current: 2mA Max

n

Input Offset Voltage: 350μV Max

n

Input Bias Current: 250nA Max

The LT1800 has an input range that includes both supply

rails and an output that swings within 20mV of either

supply rail to maximize the signal dynamic range in low

supply applications.

n

Low Voltage Noise: 8.5nV/√Hz

n

Slew Rate: 25V/μs

n

Common Mode Rejection: 105dB

n

Power Supply Rejection: 97dB

The LT1800 maintains its performance for supplies from

2.3V to 12.6V and is speciﬁed at 3V, 5V and 5V supplies.

The inputs can be driven beyond the supplies without

damage or phase reversal of the output.

n

Open-Loop Gain: 85V/mV

n

Operating Temperature Range: –40°C to 85°C

n

Available in the 8-Pin SO and 5-Pin Low Proﬁle

(1mm) ThinSOT™ Packages

The LT1800 is available in the 8-pin SO package with

the standard op amp pinout and in the 5-pin TSOT-23

package. For dual and quad versions of the LT1800, see

the LT1801/LT1802 data sheet. The LT1800 can be used

as a plug-in replacement for many op amps to improve

input/output range and performance.

APPLICATIONS

n

Low Voltage, High Frequency Signal Processing

n

Driving A/D Converters

n

Rail-to-Rail Buffer Ampliﬁers

n

Active Filters

L, LT, LTC, LTM, Linear Technology and the Linear logo are registered trademarks of Linear

Technology Corporation. ThinSOT is a trademark of Linear Technology Corporation. All other

trademarks are the property of their respective owners.

n

Video Line Driver

TYPICAL APPLICATION

Single Supply 1A Laser Driver Ampliﬁer

Laser Driver Ampliﬁer 500mA Pulse Response

5V

+

V

IN

R3

DO NOT FLOAT

Q1

ZETEX

FMMT619

10Ω

LT1800

100mA/DIV

–

C1

39pF

IR LASER

INFINEON

SFH495

R2

330Ω

R1

1Ω

1800 TA01a

1800 TA01b

50ns/DIV

1800fa

1

LT1800

ABSOLUTE MAXIMUM RATINGS ^{(Note 1)}

–

+

Speciﬁed Temperature Range (Note 5) ....–40°C to 85°C

Junction Temperature ........................................... 150°C

Storage Temperature Range...................–65°C to 150°C

Lead Temperature (Soldering, 10 sec).................. 300°C

Total Supply Voltage (V to V ) ..........................12.6V

S

Input Current (Note 2).......................................... 10mA

Output Short-Circuit Duration (Note 3) ............ Indeﬁnite

Operating Temperature Range (Note 4)....–40°C to 85°C

PIN CONFIGURATION

TOP VIEW

+

NC

1

2

3

4

8

7

6

5

NC

–

+

V

1

2

5 V

S

OUT

–

+

–IN

V

S

V

S

+

–

+IN

–

OUT

+IN 3

4 –IN

V

S

NC

S5 PACKAGE

5-LEAD PLASTIC TSOT-23

S8 PACKAGE

8-LEAD PLASTIC SO

T

JMAX

= 150°C, θ = 250°C/W

JA

T

= 150°C, θ = 190°C/W

JA

JMAX

ORDER INFORMATION

LEAD FREE FINISH

LT1800CS8#PBF

LT1800IS8#PBF

LT1800CS5#PBF

LT1800IS5#PBF

TAPE AND REEL

PART MARKING

1800

PACKAGE DESCRIPTION

8-Lead Plastic SO

SPECIFIED TEMPERATURE RANGE

LT1800CS8#TRPBF

LT1800IS8#TRPBF

LT1800CS5#TRPBF

LT1800IS5#TRPBF

0°C to 70°C

1800I

8-Lead Plastic SO

–40°C to 85°C

0°C to 70°C

LTRN

5-Lead Plastic TSOT-23

LTRP

–40°C to 85°C

Consult LTC Marketing for parts speciﬁed with wider operating temperature ranges.

Consult LTC Marketing for information on non-standard lead based ﬁnish parts.

For more information on lead free part marking, go to: http://www.linear.com/leadfree/

For more information on tape and reel speciﬁcations, go to: http://www.linear.com/tapeandreel/

ELECTRICAL CHARACTERISTICS

T_A= 25°C. V_S= 5V, 0V; V_S= 3V, 0V; V_CM= V_OUT= half supply, unless otherwise noted.

SYMBOL PARAMETER

CONDITIONS

MIN

TYP

MAX

UNITS

V

Input Offset Voltage

V

CM

V

CM

V

CM

V

CM

= 0V

75

300

0.5

0.7

350

750

3

μV

mV

OS

= 0V (SOT-23)

= V

S

= V (SOT-23)

3.5

S

Input Offset Shift

Input Bias Current

V

= 0V to V – 1.5V

20

180

μV

ΔV

CM

S

OS

I

B

V

CM

V

CM

= 1V

25

500

250

1500

nA

= V

S

I

Input Offset Current

Input Noise Voltage

V

= 1V

25

200

nA

OS

CM

= V

S

0.1Hz to 10Hz

1.4

μV

P-P

1800fa

2

LT1800

ELECTRICAL CHARACTERISTICS

T_A= 25°C. V_S= 5V, 0V; V_S= 3V, 0V; V_CM= V_OUT= half supply, unless otherwise noted.

SYMBOL PARAMETER

CONDITIONS

f = 10kHz

MIN

TYP

8.5

1

MAX

UNITS

nV/√Hz

pA/√Hz

pF

e

n

Input Noise Voltage Density

Input Noise Current Density

Input Capacitance

i

f = 10kHz

n

C

f = 100kHz

2

IN

A

VOL

Large-Signal Voltage Gain

V = 5V, V = 0.5V to 4.5V, R = 1k at V /2

35

3.5

30

85

8

85

V/mV

S

O

L

S

V = 5V, V = 1V to 4V, R = 100Ω at V /2

S

O

L

S

V = 3V, V = 0.5V to 2.5V, R = 1k at V /2

S

O

L

S

CMRR

Common Mode Rejection Ratio

V = 5V, V = 0V to 3.5V

85

78

105

97

dB

S

CM

V = 3V, V = 0V to 1.5V

S

CM

Input Common Mode Range

Power Supply Rejection Ratio

Minimum Supply Voltage (Note 6)

0

V

dB

V

S

PSRR

V = 2.5V to 10V, V = 0V

80

97

S

CM

2.3

2.5

V

Output Voltage Swing Low (Note 7) No Load

12

80

50

mV

OL

OH

I

= 5mA

160

450

SINK

= 20mA

225

V

Output Voltage Swing High (Note 7) No Load

16

120

450

60

250

850

mV

I

= 5mA

SOURCE

= 20mA

I

Short-Circuit Current

V = 5V

S

20

45

40

mA

SC

S

V = 3V

Supply Current per Ampliﬁer

Gain Bandwidth Product

Slew Rate

1.6

80

2

mA

MHz

V/μs

MHz

dBc

ns

S

GBW

SR

Frequency = 2MHz

40

13

V = 5V, A = –1, R = 1k, V = 4V

S

25

V

L

O

FPBW

HD

Full Power Bandwidth

Harmonic Distortion

Settling Time

V = 5V, V

S

= 4V

2

OUT

P-P

V = 5V, A = 1, R = 1k, V = 2V , f = 500kHz

S

–75

250

0.35

0.4

V

L

O

P-P C

t

0.01%, V = 5V, V

= 2V, A = 1, R = 1k

STEP V L

S

Differential Gain (NTSC)

Differential Phase (NTSC)

V = 5V, A = +2, R = 150Ω

S

%

ΔG

V

L

V = 5V, A = +2, R = 150Ω

S

Deg

Δθ

V

L

The l denotes the speciﬁcations which apply over the temperature range of 0°C ≤ T_A≤ 70°C. V_S= 5V, 0V; V_S= 3V, 0V;

_CM= V_OUT= half supply, unless otherwise noted.

V

SYMBOL

PARAMETER

CONDITIONS

MIN

TYP

MAX

UNITS

l

V

Input Offset Voltage

V

CM

V

CM

V

CM

V

CM

= 0V

125

300

0.6

0.7

500

1250

3.5

μV

mV

OS

= 0V (SOT-23)

= V

S

= V (SOT-23)

3.75

S

l

Input Offset Shift

V

= 0V to V – 1.5V

30

275

5

μV

ΔV

CM

S

OS

V

TC

Input Offset Voltage Drift (Note 8)

Input Bias Current

1.5

μV/°C

OS

l

I

B

V

CM

V

CM

= 1V

50

550

300

1750

nA

= V – 0.2V

S

l

I

OS

Input Offset Current

V

CM

V

CM

= 1V

25

250

nA

= V – 0.2V

S

l

A

Large-Signal Voltage Gain

V = 5V, V = 0.5V to 4.5V, R = 1k at V /2

30

3

25

75

6

75

V/mV

VOL

S

O

L

S

V = 5V, V = 1V to 4V, R = 100Ω at V /2

S

O

L

S

V = 3V, V = 0.5V to 2.5V, R = 1k at V /2

S

O

L

S

l

CMRR

Common Mode Rejection Ratio

V = 5V, V = 0V to 3.5V

82

74

101

93

dB

S

CM

V = 3V, V = 0V to 1.5V

S

CM

1800fa

3

LT1800

ELECTRICAL CHARACTERISTICS ^Thel denotes the speciﬁcations which apply over the temperature range of

0°C ≤ T_A≤ 70°C. C. V_S= 5V, 0V; V_S= 3V, 0V; V_CM= V_OUT= half supply, unless otherwise noted.

SYMBOL

PARAMETER

CONDITIONS

MIN

0

TYP

MAX

UNITS

l

Input Common Mode Range

Power Supply Rejection Ratio

Minimum Supply Voltage (Note 6)

Output Voltage Swing Low (Note 7)

V

S

V

dB

V

PSRR

V = 2.5V to 10V, V = 0V

S

74

91

CM

2.3

2.5

l

V

No Load

14

100

300

60

200

550

mV

OL

OH

I

= 5mA

= 20mA

SINK

l

V

Output Voltage Swing High (Note 7)

Short-Circuit Current

No Load

25

150

600

80

mV

I

= 5mA

300

SOURCE

= 20mA

1000

l

I

V = 5V

20

40

30

mA

SC

S

V = 3V

S

l

Supply Current per Ampliﬁer

Gain Bandwidth Product

Slew Rate

2

2.75

mA

MHz

V/μs

S

GBW

SR

Frequency = 2MHz

V = 5V, A = – 1, R = 1k, V = 4V

P-P

35

11

75

22

S

V

L

O

The l denotes the speciﬁcations which apply over the temperature range of –40°C ≤ T_A≤ 85°C. V_S= 5V, 0V; V_S= 3V, 0V; V_CM= V_OUT

half supply, unless otherwise noted.

=

SYMBOL

PARAMETER

CONDITIONS

MIN

TYP

MAX

UNITS

l

V

Input Offset Voltage

V

CM

V

CM

V

CM

V

CM

= 0V

175

400

0.75

0.9

700

2000

4

μV

mV

OS

= 0V (SOT-23)

= V

S

= V (SOT-23)

4

S

l

Input Offset Shift

V

= 0V to V – 1.5V

30

300

5

μV

ΔV

CM

S

OS

V

OS

TC

Input Offset Voltage Drift (Note 8)

Input Bias Current

1.5

μV/°C

l

I

B

V

CM

V

CM

= 1V

50

600

400

2000

nA

= V – 0.2V

S

l

I

OS

Input Offset Current

V

CM

V

CM

= 1V

25

300

nA

= V – 0.2V

S

l

A

VOL

Large-Signal Voltage Gain

V = 5V, V = 0.5V to 4.5V, R = 1k at V /2

25

2.5

20

65

6

65

V/mV

S

O

L

S

V = 5V, V = 1.5V to 3.5V, R = 100Ω at V /2

S

O

L

S

V = 3V, V = 0.5V to 2.5V, R = 1k at V /2

S

O

L

S

l

CMRR

PSRR

Common Mode Rejection Ratio

V = 5V, V = 0V to 3.5V

81

73

101

93

dB

S

CM

V = 3V, V = 0V to 1.5V

S

CM

l

Input Common Mode Range

0

V

dB

V

S

Power Supply Rejection Ratio

Minimum Supply Voltage (Note 6)

Output Voltage Swing Low (Note 7)

V = 2.5V to 10V, V = 0V

73

90

S

CM

2.3

2.5

l

V

No Load

15

105

170

70

210

400

mV

OL

OH

I

= 5mA

= 10mA

SINK

l

V

Output Voltage Swing High (Note 7)

Short-Circuit Current

No Load

25

150

300

90

350

700

mV

I

= 5mA

SOURCE

= 10mA

l

I

V = 5V

12.5

30

mA

SC

S

V = 3V

S

l

Supply Current per Ampliﬁer

Gain Bandwidth Product

Slew Rate

2.1

70

18

3

mA

S

GBW

SR

Frequency = 2MHz

V = 5V, A = – 1, R = 1k, V = 4V

30

10

MHz

V/μs

S

V

L

O

1800fa

4

LT1800

ELECTRICAL CHARACTERISTICS

T_A= 25°C, V_S= 5V, V_CM= 0V, V_OUT= 0V, unless otherwise noted.

SYMBOL

PARAMETER

CONDITIONS

MIN

TYP

MAX

UNITS

–

V

Input Offset Voltage

V

CM

V

CM

V

CM

V

CM

= V

S

150

400

0.7

1

500

1000

3.5

μV

mV

OS

= V (SOT-23)

S

+

= V

= V (SOT-23)

4.5

S

–

+

Input Offset Shift

Input Bias Current

V

= V to V – 1.5V

30

475

μV

ΔV

CM

S

OS

–

I

V

CM

V

CM

= V + 1V

25

400

350

1500

nA

B

S

+

= V

S

–

+

I

OS

Input Offset Current

V

CM

V

CM

= V + 1V

20

250

nA

S

= V

S

Input Noise Voltage

0.1Hz to 10Hz

f = 10kHz

1.4

8.5

1

μV

P-P

e

n

Input Noise Voltage Density

Input Noise Current Density

Input Capacitance

nV/√Hz

pA/√Hz

pF

i

f = 10kHz

n

C

f = 100kHz

2

IN

A

VOL

Large-Signal Voltage Gain

V = –4V to 4V, R = 1k

25

2.5

70

7

V/mV

O

L

V = –2V to 2V, R = 100ꢀ

O

L

–

CMRR

Common Mode Rejection Ratio

Input Common Mode Range

V

= V to 3.5V

85

109

dB

V

CM

S

–

+

V

S

V

S

+

–

PSRR

Power Supply Rejection Ratio

Output Voltage Swing Low (Note 7)

= 2.5V to 10V, V = 0V

80

97

dB

S

V

OL

No Load

15

85

225

60

170

450

mV

I

= 5mA

= 20mA

SINK

V

Output Voltage Swing High (Note 7)

No Load

17

130

450

70

260

900

mV

OH

I

= 5mA

SOURCE

= 20mA

I

Short-Circuit Current

Supply Current per Ampliﬁer

Gain Bandwidth Product

Slew Rate

30

50

1.8

70

mA

SC

2.75

S

GBW

SR

Frequency = 2MHz

A = – 1, R = 1k, V = 4V, Measured at V = 2V

MHz

V/μs

MHz

dBc

ns

23

V

L

O

FPBW

HD

Full Power Bandwidth

Harmonic Distortion

Settling Time

V = 8V

0.9

–75

300

0.35

0.2

O

P-P

A = 1, R = 1k, V = 2V , f = 500kHz

V

L

O

P-P C

t

0.01%, V = 5V, A = 1V, R = 1k

STEP V L

S

Differential Gain (NTSC)

Differential Phase (NTSC)

A = + 2, R = 150Ω

%

ΔG

V

L

A = + 2, R = 150Ω

Deg

Δθ

V

L

The l denotes the speciﬁcations which apply over the temperature range of 0°C ≤ T_A≤ 70°C. V_S= 5V, V_CM= 0V, V_OUT= 0V, unless

otherwise noted.

SYMBOL

PARAMETER

CONDITIONS

MIN

TYP

MAX

UNITS

–

l

V

Input Offset Voltage

V

CM

V

CM

V

CM

V

CM

= V

S

200

450

0.75

1

800

1500

4

μV

mV

OS

= V (SOT-23)

S

+

= V

= V (SOT-23)

5

S

–

+

l

Input Offset Shift

V

= V to V – 1.5V

45

675

5

μV

ΔV

CM

S

OS

V

TC

Input Offset Voltage Drift (Note 8)

Input Bias Current

1.5

μV/°C

OS

–

I

V

CM

V

CM

= V + 1V

l

30

450

400

1750

nA

B

S

+

= V – 0.2V

1800fa

5

LT1800

ELECTRICAL CHARACTERISTICS

The l denotes the speciﬁcations which apply over the temperature range of

0°C ≤ T_A≤ 70°C. V_S= 5V, V_CM= 0V, V_OUT= 0V, unless otherwise noted.

SYMBOL

PARAMETER

CONDITIONS

MIN

TYP

MAX

UNITS

–

+

l

I

Input Offset Current

V

CM

V

CM

= V + 1V

25

300

nA

OS

S

= V – 0.2V

S

l

A

VOL

Large-Signal Voltage Gain

V = –4V to 4V, R = 1k

20

2

55

5

V/mV

O

L

V = –2V to 2V, R = 100Ω

O

L

–

l

CMRR

Common Mode Rejection Ratio

Input Common Mode Range

V

= V to 3.5V

82

105

dB

V

CM

S

–

+

V

S

+

–

PSRR

Power Supply Rejection Ratio

Output Voltage Swing Low (Note 7)

= 2.5V to 10V, V = 0V

74

91

dB

S

l

V

No Load

17

105

250

70

210

575

mV

OL

OH

I

= 5mA

= 20mA

SINK

l

Output Voltage Swing High (Note 7)

No Load

25

150

600

90

mV

I

= 5mA

= 20mA

310

SOURCE

1100

l

I

Short-Circuit Current

Supply Current per Ampliﬁer

Gain Bandwidth Product

Slew Rate

25

45

2.4

70

20

mA

SC

3.5

S

GBW

SR

Frequency = 2MHz

A = –1, R = 1k, V = 4V, Measured at V = 2V

MHz

V/μs

V

L

O

The l denotes the speciﬁcations which apply over the temperature range of –40°C ≤ T_A≤ 85°C. V_S= 5V, V_CM= 0V, V_OUT= 0V, unless

otherwise noted.

SYMBOL PARAMETER

CONDITIONS

MIN

TYP

MAX

UNITS

–

l

V

Input Offset Voltage

V

CM

V

CM

V

CM

V

CM

= V

S

350

500

0.75

1

900

2250

4.5

μV

mV

OS

= V (SOT-23)

S

= V +

= V + (SOT-23)

5.5

–

+

l

Input Offset Shift

V

= V to V – 1.5V

50

750

5

μV

ΔV

CM

S

OS

V

TC

Input Offset Voltage Drift (Note 8)

Input Bias Current

1.5

μV/°C

OS

–

l

I

B

V

= V + 1V

50

450

2000

nA

CM

S

= V + – 0.2V

–

l

I

Input Offset Current

V

CM

V

CM

= V + 1V

25

350

nA

OS

S

= V + – 0.2V

S

l

A

VOL

Large-Signal Voltage Gain

V = –4V to 4V, R = 1k

16

2

55

5

V/mV

O

L

V = –1V to 1V, R = 100ꢀ

O

L

–

l

CMRR

Common Mode Rejection Ratio

Input Common Mode Range

Power Supply Rejection Ratio

V

= V to 3.5V

81

104

dB

V

CM

S

–

+

V

S

+

–

PSRR

= 2.5V to 10V, V = 0V

73

90

dB

S

l

V

Output Voltage Swing Low (Note 7) No Load

15

80

mV

OL

OH

I

= 5mA

105

170

220

400

SINK

= 10mA

l

Output Voltage Swing High (Note 7) No Load

25

150

300

100

350

700

mV

I

= 5mA

SOURCE

= 10mA

l

I

Short-Circuit Current

Supply Current per Ampliﬁer

Gain Bandwidth Product

Slew Rate

12.5

30

2.6

65

15

mA

SC

4

S

GBW

SR

Frequency = 2MHz

A = –1, R = 1k, V = 4V, Measured at V = 2V

MHz

V/μs

V

L

O

1800fa

6

LT1800

ELECTRICAL CHARACTERISTICS

Note 1: Stresses beyond those listed under Absolute Maximum Ratings

may cause permanent damage to the device. Exposure to any Absolute

Maximum Rating condition for extended periods may affect device

reliability and lifetime.

Note 2: The inputs are protected by back-to-back diodes and by ESD

diodes to the supply rails. If the differential input voltage exceeds 1.4V or

either input goes outside the rails, the input current should be limited to

less than 10mA.

Note 4: The LT1800C/LT1800I are guaranteed functional over the

temperature range of –40°C to 85°C.

Note 5: The LT1800C is guaranteed to meet speciﬁed performance from

0°C to 70°C. The LT1800C is designed, characterized and expected to

meet speciﬁed performance from –40°C to 85°C but is not tested or

QA sampled at these temperatures. The LT1800I is guaranteed to meet

speciﬁed performance from –40°C to 85°C.

Note 6: Minimum supply voltage is guaranteed by power supply rejection

Note 3: A heat sink may be required to keep the junction temperature

below the absolute maximum rating when the output is shorted

indeﬁnitely.

ratio test.

Note 7: Output voltage swings are measured between the output and

power supply rails.

Note 8: This parameter is not 100% tested.

TYPICAL PERFORMANCE CHARACTERISTICS

V_OSDistribution, V_CM= 0V

(SO-8, PNP Stage)

V_OSDistribution, V_CM= 5V

(SO-8, NPN Stage)

V_OSDistribution, V_CM= 0V

(SOT-23, PNP Stage)

40

35

30

25

20

15

10

5

45

40

35

30

25

20

15

10

5

45

40

35

30

25

20

15

10

5

V

= 5V, 0V

= 0V

V

= 5V, 0V

= 5V

V

= 5V, 0V

= 0V

S

CM

S

CM

S

CM

0

–250

0

–1250

–750

–250

250

750

1250

–150

–50

250

50

150

–2000 –1200

–400

2000

400

1200

INPUT OFFSET VOLTAGE (μV)

1800 G03

1800 G01

1800 G02

V_OSDistribution, V_CM= 5V

(SOT-23, NPN Stage)

Offset Voltage

vs Input Common Mode Voltage

Supply Current vs Supply Voltage

35

30

500

400

4

3

2

1

0

V

= 5V, 0V

V

= 5V, 0V

CM

S

T

= –55°C

A

TYPICAL PART

= 5V

300

T

= 125°C

A

T

A

25

200

T

= 25°C

A

100

20

15

10

5

= 25°C

A

0

–100

–200

–300

–400

–500

= –55°C

T

= 125°C

2

A

0

–2500 –1500 –500

500

1500

2500

0

1

2

3

4

5

6

7

8

9

10 11 12

0

1

3

4

5

INPUT OFFSET VOLTAGE (μV)

TOTAL SUPPLY VOLTAGE (V)

INPUT COMMON MODE VOLTAGE (V)

1800 G04

1800 G05

1800 G06

1800fa

7

LT1800

TYPICAL PERFORMANCE CHARACTERISTICS

Input Bias Current

vs Common Mode Voltage

Input Bias Current

vs Temperature

Output Saturation Voltage

vs Load Current (Output Low)

10

1

1.0

0.8

0.7

0.6

0.5

0.4

0.3

0.2

0.1

0

V

= 5V, 0V

V

= 5V, 0V

S

T

= 25°C

A

= 125°C

= –55°C

NPN ACTIVE

0.6

V

= 5V, 0V

S

CM

0.4

= 5V

0.2

0.1

0

–0.2

–0.4

–0.6

–0.8

–1.0

T

A

= 125°C

A

PNP ACTIVE

0.01

0.001

V

= 5V, 0V

CM

S

T

= –55°C

T

= 25°C

1

A

= 1V

–0.1

–1

0

1

2

3

4

5

6

0.01

0.1

10

100

–60 –40 –20

0

20

40

60

80

LOAD CURRENT (mA)

INPUT COMMON MODE VOLTAGE (V)

TEMPERATURE (°C)

1800 G09

1800 G07

1800 G08

Output Saturation Voltage

Output Short-Circuit Current

vs Power Supply Voltage

vs Load Current (Output High)

Minimum Supply Voltage

10

1

70

60

50

40

30

20

10

0

–10

–20

–30

–40

–50

–60

–70

0.6

V

= 5V, 0V

T

= 25°C

S

A

T

= –55°C

A

0.4

0.2

T

= 125°C

A

T

= –55°C

SINKING

= 5V, 0V

A

T

= 25°C

A

V

S

0.1

0

T

= 125°C

= –55°C

A

T

= –55°C

= 125°C

SOURCING

–0.2

T

= 125°C

A

0.01

0.001

T

A

T

= 25°C

1

T

A

–0.4

–0.6

T

= 25°C

A

0.01

0.1

10

100

0

1.5

2

2.5

3

3.5

4

4.5

5

5.5

1.5

2

2.5

3

3.5

4

4.5

5

LOAD CURRENT (mA)

TOTAL SUPPLY VOLTAGE (V)

POWER SUPPLY VOLTAGE ( V)

1800 G10

1800 G11

1800 G12

Open-Loop Gain

2000

1600

1200

800

2000

1600

1200

800

2000

1600

1200

800

V

= 3V, 0V

TO GND

V

= 5V, 0V

TO GND

V

=

5V

R TO GND

L

S

L

S

L

S

R

400

R

= 1k

L

R

= 1k

R

= 1k

L

0

–400

–800

–1200

–1600

–2000

–400

–800

–1200

–1600

–2000

–400

–800

–1200

–1600

–2000

R

= 100ꢀ

L

R

L

= 100ꢀ

R

= 100Ω

L

0

0.5

1.5

2

2.5

3

1

0.5

1

3

3.5

4.5

–4 –3

1

2

4

0

1.5

2

2.5

4

5

–5

–2 –1

0

3

5

OUTPUT VOLTAGE (V)

1800 G13

1800 G14

1800 G15

1800fa

8

LT1800

TYPICAL PERFORMANCE CHARACTERISTICS

Warm-Up Drift

Offset Voltage vs Output Current

vs Time (LT1800S8)

Input Noise Voltage vs Frequency

60

120

110

100

90

2.0

1.5

V

= 5V, 0V

V

= 5V

S

V

=

5V

S

50

40

1.0

T

= –55°C

A

0.5

V

=

2.5V

1.5V

NPN ACTIVE

= 4.25V

S

80

30

20

0

V

CM

70

–0.5

–1.0

–1.5

–2.0

T

= 25°C

A

T

= 125°C

A

60

V

=

10

0

50

PNP ACTIVE

= 2.5V

V

CM

TYPICAL PART

40

20

40

80 100 120 140

0

60

0.01

0.1

1

FREQUENCY (kHz)

10

100

0

15

–60 –45 –30 –15

30 45 60

TIME AFTER POWER-UP (SECONDS)

OUTPUT CURRENT (mA)

1800 G18

1800 G17

1800 G16

0.1Hz to 10Hz Output Voltage

Noise

Input Current Noise vs Frequency

3.0

2000

1000

0

V

= 5V, 0V

V = 5V, 0V

S

2.5

2.0

PNP ACTIVE

= 2.5V

1.5

1.0

V

CM

–1000

–2000

NPN ACTIVE

= 4.25V

0.5

0

V

CM

0

1

2

3

4

5

6

7

8

9

10

0.01

0.1

1

FREQUENCY (kHz)

10

100

TIME (SECONDS)

1800 G19

1800 G20

Gain Bandwidth and Phase

Margin vs Supply Voltage

Gain Bandwidth and Phase

Margin vs Temperature

100

90

80

70

60

50

100

90

T

= 25°C

GBW PRODUCT

2.5V

A

V

=

S

GAIN BANDWIDTH

PRODUCT

80

GBW PRODUCT

5V

V

=

S

70

PHASE MARGIN

2.5V

60

50

40

30

20

10

60

50

40

30

20

V

=

S

PHASE MARGIN

5V

V

=

S

–55 –35 –15

5

25 45 65 85 105 125

0

1

2

3

4

5

6

7

8

9

10

TEMPERATURE (°C)

TOTAL SUPPLY VOLTAGE (V)

1800 G22

1800 G21

1800fa

9

LT1800

TYPICAL PERFORMANCE CHARACTERISTICS

Slew Rate vs Temperature

Gain and Phase vs Frequency

70

60

50

40

100

80

35

30

A

R

= –1

G

= 1k

V

F

L

= R = 1k

V

=

2.5V

5V

S

PHASE

60

40

30

20

0

25

V

=

S

GAIN

10

0

–20

–40

–60

–80

–100

20

15

10

–10

–20

–30

V

=

2.5V

5V

S

0.01

0.1

1

10

100 300

–55 –35 –15

5

25 45 65 85 105 125

TEMPERATURE (oC)

FREQUENCY (MHz)

1800 G24

1800 G23

Gain vs Frequency (A_V= 1)

Gain vs Frequency (A_V= 2)

Output Impedance vs Frequency

600

100

12

9

18

15

12

9

R

C

V

= 1k

= 10pF

= 2

V = 2.5V

S

R

C

V

= 1k

= 10pF

= 1

L

A

6

A

= 10

V

10

1

3

V

= 2.5V

S

A

= 1

V

0

6

V

=

2.5V

V

= 5V

S

A

= 2

V

–3

–6

–9

–12

3

0.1

V

= 5V

S

0

0.01

0.001

–3

–6

0.1

1

10

FREQUENCY (MHz)

100

500

0.1

1

10

100 300

0.1

1

10

100 300

FREQUENCY (MHz)

1800 G25

1800 G26

1800 G27

Common Mode Rejection Ratio

vs Frequency

Power Supply Rejection Ratio

vs Frequency

Series Output Resistor

vs Capacitive Load

90

80

70

60

55

50

45

40

35

30

25

20

15

10

5

120

V

T

= 5V, 0V

= 25°C

V

A

= 5V, 0V

= 1

V

= 5V, 0V

S

A

S

V

S

100

80

NEGATIVE

SUPPLY

POSITIVE

SUPPLY

R

= 10Ω

OS

50

40

60

40

R

= 20Ω

OS

30

20

10

20

0

R

= R = 50Ω

L

OS

0

–10

0

0.001

0.01

0.1

1

10

100

10

100

1000

10000

0.01

0.1

1

10

100

FREQUENCY (MHz)

CAPACITIVE LOAD (pF)

1800 G29

1800 G30

1800 G28

1800fa

10

LT1800

TYPICAL PERFORMANCE CHARACTERISTICS

Series Output Resistor

vs Capacitive Load

Distortion vs Frequency

–40

–50

–40

–50

60

55

50

45

40

35

30

25

20

15

10

5

V

A

V

= 5V, 0V

= 1

V

A

V

= 5V, 0V

= 2

V

A

= 5V, 0V

= 2

S

V

S

V

S

V

= 2V

OUT

P-P

OUT

P-P

R

= 1k,

L

–60

2ND

R

L

= 1507, 2ND

R

L

= 150Ω, 2ND

R

= 1k, 2ND

L

R

3RD

= 150Ω,

–70

L

R

= 150Ω, 3RD

L

R

= 10Ω

OS

–80

R

= 20Ω

–90

OS

–100

R

L

= 1k, 3RD

R

= 1k, 3RD

L

R

= R = 50Ω

L

OS

–110

0

0.01

0.1

1

10

0.01

0.1

1

10

100

1000

10000

FREQUENCY (MHz)

CAPACITIVE LOAD (pF)

1800 G32

1800 G33

1800 G31

Maximum Undistorted Output

Signal vs Frequency

5V Large-Signal Response

5V Small-Signal Response

4.6

4.5

4.4

4.3

4.2

4.1

4.0

3.9

50mV/DIV

0V

A

= 2

V

1V/DIV

0V

A

= –1

V

1800 G35

1800 G36

V

= 5V, 0V

= 1k

V

A

= 5V, 0V

= 1

= 1k

100ns/DIV

V

A

= 5V, 0V

= 1

= 1k

50ns/DIV

S

L

S

V

S

V

R

L

1k

10k

100k

FREQUENCY (Hz)

1M

10M

1800 G34

5V Large-Signal Response

5V Small-Signal Response

Output Overdriven Recovery

V

IN

1V/DIV

50mV/DIV

0V

2V/DIV

0V

V

OUT

2V/DIV

0V

1800 G38

1800 G39

1800 G37

V

A

=

5V

50ns/DIV

V

A

= 5V, 0V

= 2

= 1k

100ns/DIV

V

A

=

5V

200ns/DIV

S

V

L

S

V

L

S

V

L

= 1

R

= 1k

R

= 1k

1800fa

11

LT1800

APPLICATIONS INFORMATION

Circuit Description

ApairofcomplementarycommonemitterstagesQ14/Q15

that enable the output to swing from rail to rail constructs

the output stage. The capacitors C2 and C3 form the lo-

cal feedback loops that lower the output impedance at

high frequency. These devices are fabricated on Linear

Technology’s proprietary high speed complementary

bipolar process.

The LT1800 has an input and output signal range that cov-

ers from the negative power supply to the positive power

supply. Figure 1 depicts a simpliﬁed schematic of the

ampliﬁer. The input stage is comprised of two differential

ampliﬁers, a PNP stage Q1/Q2 and an NPN stage Q3/Q4

that are active over the different ranges of common mode

inputvoltage.ThePNPdifferentialpairisactivebetweenthe

negative supply to approximately 1.2V below the positive

supply. Astheinputvoltagemovesclosertowardtheposi-

Power Dissipation

TheLT1800ampliﬁerisofferedinasmallpackage,SOT-23,

whichhasathermalresistanceof250°C/W,θ .Sothereis

tive supply, the transistor Q5 will steer the tail current I to

JA

1

aneedtoensurethatthedie’sjunctiontemperatureshould

the current mirror Q6/Q7, activating the NPN differential

pair and the PNP pair becomes inactive for the rest of the

input common mode range up to the positive supply. Also

attheinputstage,devicesQ17toQ19acttocancelthebias

current of the PNP input pair. When Q1-Q2 are active, the

current in Q16 is controlled to be the same as the current

in Q1-Q2, thus the base current of Q16 is nominally equal

to the base current of the input devices. The base current

of Q16 is then mirrored by devices Q17-Q19 to cancel the

base current of the input devices Q1-Q2.

not exceed 150°C. Junction temperature T is calculated

J

from the ambient temperature T , power dissipation P

A

D

and thermal resistance θ :

JA

T = T + (P • θ )

J

A

D

JA

The power dissipation in the IC is the function of the sup-

ply voltage, output voltage and the load resistance. For

a given supply voltage, the worst-case power dissipation

P

DMAX

occurs at the maximum supply current and the

+

V

R3

R4

R5

–

+

V

Q12

+

D1

ESDD1

ESDD2

Q11

Q13

Q15

I

1

2

C2

+IN

–IN

+

D6

D5

D8

D7

Q5

V

BIAS

I

3

D2

OUT

C

–

V

Q4 Q3

Q1 Q2

D3

BUFFER

AND

ESDD4

ESDD3

OUTPUT BIAS

Q10

–

+

V

D4

Q9

R1

Q8

R2

Q16

C1

Q17

Q18

Q14

Q7

Q6

Q19

–

V

1800 F01

Figure 1. LT1800 Simpliﬁed Schematic Diagram

1800fa

12

LT1800

APPLICATIONS INFORMATION

output voltage is at half of either supply voltage (or the

maximum swing is less than 1/2 supply voltage). P

is given by:

ampliﬁerhasreverse-biaseddiodesconnectedtoeachsup-

ply. If the output is forced beyond either supply, unlimited

current will ﬂow through these diodes. If the current is

transient and limited to several hundred mA, and the total

supply voltage is less than 12.6V, the absolute maximum

rating, no damage will occur to the device.

DMAX

2

P

= (V • I

) + (V /2) /R

DMAX

S

SMAX

S

L

Example:AnLT1800inaSOT-23packageoperatingon 5V

supplies and driving a 50Ω load, the worst-case power

dissipation is given by:

Overdrive Protection

2

P

= (10 • 4mA) + (2.5) /50 = 0.04 + 0.125 = 0.165W

When the input voltage exceeds the power supplies, two

pairs of crossing diodes D1 to D4 will prevent the output

from reversing polarity. If the input voltage exceeds either

power supply by 700mV, diode D1/D2 or D3/D4 will turn

on to keep the output at the proper polarity. For the phase

reversal protection to perform properly, the input current

must be limited to less than 10mA. If the ampliﬁer is

severely overdriven, an external resistor should be used

to limit the overdrive current.

DMAX

The maximum ambient temperature that the part is al-

lowed to operate is:

T = T – (P • 250°C/W)

DMAX

A

J

= 150°C – (0.165W • 250°C/W) = 108°C

Input Offset Voltage

The offset voltage will change depending upon which

input stage is active. The PNP input stage is active from

the negative supply rail to 1.2V of the positive supply rail,

then the NPN input stage is activated for the remaining

input range up to the positive supply rail during which

the PNP stage remains inactive. The offset voltage is

typically less than 75μV in the range that the PNP input

stage is active.

The LT1800’s input stages are also protected against a

large differential input voltage of 1.4V or higher by a pair

of back-back diodes D5/D8 to prevent the emitter-base

breakdown of the input transistors. The current in these

diodes should be limited to less than 10mA when they are

active. The worst-case differential input voltage usually

occurs when the input is driven while the output is shorted

to ground in a unity gain conﬁguration. In addition, the

ampliﬁer is protected against ESD strikes up to 3kV on

all pins by a pair of protection diodes on each pin that are

connected to the power supplies as shown in Figure 1.

Input Bias Current

The LT1800 employs a patent-pending technique to trim

the input bias current to less than 250nA for the input

common mode voltage of 0.2V above negative supply

rail to 1.2V of the positive rail. The low input offset volt-

age and low input bias current of the LT1800 provide the

precision performance especially for high source imped-

ance applications.

Capacitive Load

The LT1800 is optimized for high bandwidth, low power

and precision applications. It can drive a capacitive load

of about 75pF in a unity gain conﬁguration, and more for

highergain.Whendrivingalargercapacitiveload,aresistor

of 10Ω to 50Ω should be connected between the output

and the capacitive load to avoid ringing or oscillation. The

feedback should still be taken from the output so that the

resistor will isolate the capacitive load to ensure stability.

Graphsoncapacitiveloadsindicatethetransientresponse

of the ampliﬁer when driving capacitive load with a speci-

ﬁed series resistor.

Output

TheLT1800candeliveralargeoutputcurrent,sotheshort-

circuit current limit is set around 50mA to prevent damage

to the device. Attention must be paid to keep the junction

temperature of the IC below the absolute maximum rating

of150°C(refertothePowerDissipationsection)whenthe

output is continuously short-circuited. The output of the

1800fa

13

LT1800

APPLICATIONS INFORMATION

Feedback Components

a capacitance of 5pF (part plus PC board) will probably

ring in transient response. The pole is formed at 12.7MHz

that will reduce phase margin by 32 degrees when the

crossover frequency of the ampliﬁer is around 20MHz. A

capacitor of 5pF or higher connected across the feedback

resistor will eliminate any ringing or oscillation.

Whenfeedbackresistorsareusedtosetupgain,caremust

be taken to ensure that the pole formed by the feedback

resistors and the total capacitance at the inverting input

does not degrade stability. For instance, the LT1800 in a

noninverting gain of 2, set up with two 5k resistors and

TYPICAL APPLICATIONS

Single Supply 1A Laser Driver Ampliﬁer

time domain response of this circuit, measured at R1 and

given a 500mV 230ns input pulse, is also shown in the

graphic on the front page. While the circuit is capable

of 1A operation, the laser diode and the transistor are

thermally limited due to power dissipation, so they must

be operated at low duty cycles.

The circuit in the front page of this data sheet shows the

LT1800 used in a 1A laser driver application. One of the

reasons the LT1800 is well suited to this control task is

that its 2.3V operation ensures that it will be awake during

power-up and operated before the circuit can otherwise

cause signiﬁcant current to ﬂow in the 2.1V threshold

laser diode. Driving the noninverting input of the LT1800

Fast 1A Current Sense Ampliﬁer

Asimple,fastcurrentsenseampliﬁerinFigure2issuitable

forquicklyrespondingtoout-of-rangecurrents.Thecircuit

ampliﬁes the voltage across the 0.1Ω sense resistor by

a gain of 20, resulting in a conversion gain of 2V/A. The

–3dBbandwidthofthecircuitis4MHz, andtheuncertainty

due to V and I is less than 4mA. The minimum output

to a voltage V will control the turning on of the high

IN

current NPN transistor, FMMT619 and the laser diode.

A current equal to V /R1 ﬂows through the laser diode.

IN

The LT1800 low offset voltage and low input bias current

allows it to control the current that ﬂows through the laser

diode precisely. The overall circuit is a 1A per volt V-to-I

converter. Frequency compensation components R2 and

C1 are selected for fast but zero-overshoot time domain

response to avoid overcurrent conditions in the laser. The

OS

B

voltage is 60mV, corresponding to 30mA. The large-signal

response of the circuit is shown in Figure 3.

I

L

3V

0A TO 1A

52.3Ω

+

–

V

OUT

LT1800

0V TO 2V

0.1Ω

500mV/DIV

0V

1k

52.3Ω

1800 F02

V

= 2 • I

= 4MHz

OUT

L

f

–3dB

1800 F03

UNCERTAINTY DUE TO V

I

< 4mA

OS,

B

V

S

= 3V

50ns/DIV

Figure 2. Fast 1A Current Sense

Figure 3. Current Sense Ampliﬁer Large-Signal Response

1800fa

14

LT1800

TYPICAL APPLICATIONS

Single 3V Supply, 1MHz, 4th Order Butterworth Filter

rail-to-rail for maximum dynamic range. Figure 5 displays

the frequency response of the ﬁlter. Stopband attenuation

The circuit shown in Figure 4 makes use of the low voltage

operation and the wide bandwidth of the LT1800 to create

aDCaccurate1MHz4thorderlowpassﬁlterpoweredfrom

a 3V supply. The ampliﬁers are conﬁgured in the inverting

mode for the lowest distortion and the output can swing

is greater than 100dB at 50MHz. With a 2.25V , 250kHz

P-P

input signal, the ﬁlter has harmonic distortion products

of less than –85dBc. Worst-case output offset voltage is

less than 6mV.

47pF

909Ω

2.67k

3V

909Ω

22pF

1.1k

2.21k

–

V

IN

1.1k

–

220pF

LT1800

+

470pF

V

OUT

LT1800

+

V /2

S

1800 F04

Figure 4. 3V, 1MHz, 4th Order Butterworth Filter

0

–20

–40

–60

–80

–100

–120

1k

10k

100k

1M

10M

100M

FREQUENCY (Hz)

1800 F05

Figure 5. Frequency Response of Filter

1800fa

15

LT1800

PACKAGE DESCRIPTION

S5 Package

5-Lead Plastic TSOT-23

(Reference LTC DWG # 05-08-1635)

0.62

MAX

0.95

REF

2.90 BSC

(NOTE 4)

1.22 REF

1.50 – 1.75

(NOTE 4)

2.80 BSC

1.4 MIN

3.85 MAX 2.62 REF

PIN ONE

RECOMMENDED SOLDER PAD LAYOUT

PER IPC CALCULATOR

0.30 – 0.45 TYP

5 PLCS (NOTE 3)

0.95 BSC

0.80 – 0.90

0.20 BSC

DATUM ‘A’

0.01 – 0.10

1.00 MAX

0.30 – 0.50 REF

1.90 BSC

0.09 – 0.20

(NOTE 3)

NOTE:

S5 TSOT-23 0302 REV B

1. DIMENSIONS ARE IN MILLIMETERS

2. DRAWING NOT TO SCALE

3. DIMENSIONS ARE INCLUSIVE OF PLATING

4. DIMENSIONS ARE EXCLUSIVE OF MOLD FLASH AND METAL BURR

5. MOLD FLASH SHALL NOT EXCEED 0.254mm

6. JEDEC PACKAGE REFERENCE IS MO-193

1800fa

16

LT1800

PACKAGE DESCRIPTION

S8 Package

8-Lead Plastic Small Outline (Narrow .150 Inch)

(Reference LTC DWG # 05-08-1610)

.189 – .197

(4.801 – 5.004)

.045 .005

NOTE 3

.050 BSC

7

5

8

6

.245

MIN

.160 .005

.150 – .157

(3.810 – 3.988)

NOTE 3

.228 – .244

(5.791 – 6.197)

.030 .005

TYP

1

3

4

2

RECOMMENDED SOLDER PAD LAYOUT

.010 – .020

(0.254 – 0.508)

× 45°

.053 – .069

(1.346 – 1.752)

.004 – .010

(0.101 – 0.254)

.008 – .010

(0.203 – 0.254)

0°– 8° TYP

.016 – .050

(0.406 – 1.270)

.050

(1.270)

BSC

.014 – .019

(0.355 – 0.483)

TYP

NOTE:

INCHES

1. DIMENSIONS IN

(MILLIMETERS)

2. DRAWING NOT TO SCALE

3. THESE DIMENSIONS DO NOT INCLUDE MOLD FLASH OR PROTRUSIONS.

MOLD FLASH OR PROTRUSIONS SHALL NOT EXCEED .006" (0.15mm)

SO8 0303

1800fa

Information furnished by Linear Technology Corporation is believed to be accurate and reliable.

However, no responsibility is assumed for its use. Linear Technology Corporation makes no representa-

tion that the interconnection of its circuits as described herein will not infringe on existing patent rights.

17

LT1800

TYPICAL APPLICATION

Low Power High Voltage Ampliﬁer

DC output voltage. When no signal is present, the op

amp output sits at about mid-supply. Transistors Q1 and

Q3 create bias voltages for Q2 and Q4, which are forced

into a low quiescent current by degeneration resistors

Certainmaterialsusedinopticalapplicationshavecharac-

teristics that change due to the presence and strength of a

DCelectricﬁeld.Thevoltageappliedacrossthesematerials

should be precisely controlled to maintain desired proper-

ties, sometimes as high as 100’s of volts. The materials

are not conductive and represent a capacitive load.

R4 and R5. When a transient signal arrives at V , the op

IN

amp output moves and causes the current in Q2 or Q4

to change depending on the signal polarity. The current,

limited by the clipping of the LT1800 output and the 3kꢀ

of total emitter degeneration, is mirrored to the output

devices to drive the capacitive load. The LT1800 output

then returns to near mid-supply, providing the precise DC

outputvoltagetotheload.Theattentiontolimitthecurrent

of the output devices minimizes power dissipation thus

allowing for dense layout, and inherits better reliability.

Figure 7 shows the time domain response of the ampliﬁer

providing a 200V output swing into a 100pF load.

The circuit of Figure 6 shows the LT1800 used in an ampli-

ﬁer capable of a 250V output swing and providing precise

130V

5V

10k

4.99k

1k

Q6

Q5

0.1MF

Q2

Q1

5V

R4

2k

R6

2k

+

R2

2k

V

OUT

LT1800

–

MATERIAL UNDER

R5

2k

R7

2k

ELECTRIC FIELD

100pF

V

IN

2V/DIV

Q3

Q4

V

IN

R1

2k

A = V /V = –100

V OUT IN

C1

39pF

10k

V

OUT

50V/DIV

130V SUPPLY I = 130MA

Q

Q7

Q8

1k

OUTPUT SWING = 128.8V

OUTPUT OFFSET 20mV

OUTPUT SHORT-CIRCUIT CURRENT 3mA

10% TO 90% RISE TIME 8Ms, 200V OUTPUT STEP

SMALL-SIGNAL BANDWIDTH 150kHz

Q1, Q2, Q7, Q8: ON SEMI MPSA42

Q3, Q4, Q5, Q6: ON SEMI MPSA92

C2

R3

200k

8pF

4.99k

150V

–130V

1800 F07

10μs/DIV

1800 F06

Figure 6. Low Power, High Voltage Ampliﬁer

Figure 7. Large-Signal Time Domain

Response of the Ampliﬁer

RELATED PARTS

PART NUMBER DESCRIPTION

COMMENTS

0.1dB Gain Flatness to 150MHz, Shutdown

LT1498/LT1499 Dual/Quad 10MHz, 6Vμs Rail-to-Rail Input and Output C-Load™ Op Amps High DC Accuracy, 475μV V , 4mV/°C Max Drift,

LT1399

Triple 300MHz Current Feedback Ampliﬁer

OS(MAX)

Max Supply Current 2.2mA per Amp

LT1630/LT1631 Dual/Quad 30MHz, 10V/μs Rail-to-Rail Input and Output Op Amps

High DC Accuracy, 525μV V , 70mA Output Current,

OS(MAX)

Max Supply Current 4.4mA per Ampliﬁer

LT1801/LT1802 80MHz, 25V/μs Low Power Rail-to-Rail Input/Output Precision Op Amps

LT1806/LT1807 Single/Dual 325MHz, 140V/μs Rail-to-Rail Input and Output Op Amps

Dual/Quad Version of the LT1800

High DC Accuracy, 550μV V

, Low Noise 3.5nV/√Hz,

OS(MAX)

Low Distortion –80dB at 5MHz, Power-Down (LT1806)

LT1809/LT1810 Single/Dual 180MHz Rail-to-Rail Input/Output Op Amps

350V/μs Slew Rate, Low Distortion –t at 5MHz,

Power-Down (LT1809)

C-Load is a trademark of Linear Technology Corporation.

1800fa

LT 0709 REV A • PRINTED IN USA

LinearTechnology Corporation

1630 McCarthy Blvd., Milpitas, CA 95035-7417

18

●

(408) 432-1900 FAX: (408) 434-0507 www.linear.com


型号：	LT1800CS5#TR
厂家：	Linear
描述：	LT1800 - 80MHz, 25V/µs Low Power Rail-to-Rail Input and Output Precision Op Amp; Package: SOT; Pins: 5; Temperature Range: 0°C to 70°C 放大器光电二极管
文件：	总18页 (文件大小：278K)
中文：	中文翻译
下载：	下载PDF数据表文档文件

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