3

LT1460-10

PARAMETER

CONDITIONS

MIN

TYP

MAX

UNITS

Output Voltage (Note 2)

LT1460ACN8, ACS8

9.9925

10.000

10.0075

V

– 0.075

0.075

%

LT1460BIN8, BIS8, CCMS8, DCN8, DCS8

9.990

10.000

10.010

V

– 0.10

0.10

%

LT1460EIN8, EIS8

9.9875

10.000

10.0125

V

– 0.125

0.125

%

LT1460FCMS8

9.985

10.000

10.015

V

– 0.15

0.15

%

LT1460GCZ, GIZ

9.975

10.000

10.025

V

– 0.25

0.25

%

Output Voltage Temperature Coefficient (Note 3)

LT1460ACN8, ACS8, BIN8, BIS8

q

5

10

ppm/

°C

LT1460CCMS8

q

7

15

ppm/

°C

LT1460DCN8, DCS8, EIN8, EIS8

q

10

20

ppm/

°C

LT1460FCMS8, GCZ, GIZ

q

12

25

ppm/

°C

Line Regulation

10.9V

30

60

ppm/V

q

80

ppm/V

12.5V

10

25

ppm/V

q

35

ppm/V

Load Regulation Sourcing (Note 4)

1500

2800

ppm/mA

q

3500

ppm/mA

80

135

ppm/mA

q

180

ppm/mA

70

100

ppm/mA

0

°C to 70°C

q

140

ppm/mA

Thermal Regulation (Note 5)

∆P = 200mW

0.5

2.5

ppm/mW

Dropout Voltage (Note 6)

q

0.9

V

1.3

V

q

1.4

V

Output Current

40

mA

Reverse Leakage

q

0.5

10

µA

Supply Current

190

270

µA

q

360

µA

Output Voltage Noise (Note 7)

0.1Hz

≤ f ≤ 10Hz

40

10Hz

≤ f ≤ 1kHz

35

Long-Term Stability of Output Voltage, S8 Pkg (Note 8)

40

ppm/

√kHr

Hysteresis (Note 9)

∆T = –40°C to 85°C

160

ppm

∆T = 0°C to 70°C

25

ppm

range.

Note 1: If the part is stored outside of the specified temperature range, the

output may shift due to hysteresis.

Note 2: ESD (Electrostatic Discharge) sensitive device. Extensive use of

ESD protection devices are used internal to the LT1460-10, however, high

electrostatic discharge can damage or degrade the device. Use proper ESD

handling precautions.

Note 3: Temperature coefficient is measured by dividing the change in

output voltage by the specified temperature range. Incremental slope is

also measured at 25

°C.

Note 4: Load regulation is measured on a pulse basis from no load to the

specified load current. Output changes due to die temperature change

must be taken into account separately.

Note 5: Thermal regulation is caused by die temperature gradients created

by load current or input voltage changes. This effect must be added to

normal line or load regulation. This parameter is not 100% tested.