16 Voltage References 5

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Part RoHS Manufacturer Other IC type Temperature Grade No. of Terminals Package Code Package Shape Surface Mount Total Dose (V) Package Body Material Maximum Supply Current (Isup) Maximum Output Current Trim or Adjustable Output (V) No. of Functions Technology Screening Level Nominal Bandwidth Terminal Form Main Out Ripple Voltage Maximum Negative Supply Voltage (Vsup) Nominal Supply Voltage (Vsup) Maximum Voltage Tolerance Package Style (Meter) Package Equivalence Code Sub-Category Terminal Pitch Maximum Operating Temperature Minimum Output Voltage Minimum Operating Temperature Max Voltage Temp Coef Terminal Finish Maximum Output Voltage Terminal Position JESD-30 Code Moisture Sensitivity Level (MSL) Maximum Supply Voltage (Vsup) Maximum Seated Height Width (mm) Qualification Minimum Supply Voltage (Vsup) Additional Features Minimum Negative Supply Voltage (Vsup) JESD-609 Code Maximum Time At Peak Reflow Temperature (s) No. of Outputs Peak Reflow Temperature (C) Length Nominal Output Voltage

AD688BQ

Analog Devices

THREE TERMINAL VOLTAGE REFERENCE

INDUSTRIAL

16

DIP

RECTANGULAR

NO

CERAMIC, GLASS-SEALED

12 mA

NO

1

BIPOLAR

THROUGH-HOLE

-18 V

15 V

IN-LINE

DIP16,.3

Voltage References

2.54 mm

85 Cel

9.998 V

-40 Cel

3 ppm/Cel

TIN LEAD

10.002 V

DUAL

R-GDIP-T16

18 V

5.08 mm

7.62 mm

Not Qualified

13.5 V

-10V OUTPUT ALSO AVAILABLE, -13.5V TO -18V SUPPLY IS ALSO REQUIRED

-13.5 V

e0

2

19.05 mm

10 V

AD688AQ

Analog Devices

THREE TERMINAL VOLTAGE REFERENCE

INDUSTRIAL

16

DIP

RECTANGULAR

NO

CERAMIC, GLASS-SEALED

12 mA

NO

1

BIPOLAR

THROUGH-HOLE

-18 V

15 V

IN-LINE

DIP16,.3

Voltage References

2.54 mm

85 Cel

9.995 V

-40 Cel

3 ppm/Cel

TIN LEAD

10.005 V

DUAL

R-GDIP-T16

18 V

5.08 mm

7.62 mm

Not Qualified

13.5 V

-10V OUTPUT ALSO AVAILABLE, -13.5V TO -18V SUPPLY IS ALSO REQUIRED

-13.5 V

e0

2

19.05 mm

10 V

AD588TQ/883B

Analog Devices

VOLTAGE REFERENCE

MILITARY

16

DIP

RECTANGULAR

NO

CERAMIC

.01 mA

.01 A

YES

1

BIPOLAR

THROUGH-HOLE

-18 V

15 V

.1 %

IN-LINE

DIP16,.3

Voltage References

2.54 mm

125 Cel

5 V

-55 Cel

TIN LEAD

10 V

DUAL

R-CDIP-T16

18 V

5.08 mm

6.73 mm

Not Qualified

13.5 V

-10.8 V

e0

2

21.34 mm

5 V

AD688ARWZ

Analog Devices

THREE TERMINAL VOLTAGE REFERENCE

INDUSTRIAL

16

SOP

RECTANGULAR

YES

PLASTIC/EPOXY

NO

1

BIPOLAR

GULL WING

15 V

SMALL OUTLINE

SOP16,.4

Voltage References

1.27 mm

85 Cel

9.996 V

-40 Cel

8 ppm/Cel

MATTE TIN

10.004 V

DUAL

R-PDSO-G16

1

18 V

2.65 mm

7.5 mm

Not Qualified

13.5 V

-10V OUTPUT ALSO AVAILABLE, -13.5V TO -18V SUPPLY IS ALSO REQUIRED

e3

30

2

260

10.3 mm

10 V

AD588ARWZ

Analog Devices

THREE TERMINAL VOLTAGE REFERENCE

OTHER

16

SOP

RECTANGULAR

YES

PLASTIC/EPOXY

10 mA

.01 A

YES

1

BIPOLAR

GULL WING

-18 V

15 V

.06 %

SMALL OUTLINE

SOP16,.4

Voltage References

1.27 mm

85 Cel

9.995 V

-25 Cel

3 ppm/Cel

MATTE TIN

10.005 V

DUAL

R-PDSO-G16

1

18 V

2.65 mm

7.5 mm

Not Qualified

13.5 V

5V OUTPUT IS ALSO AVAILABLE

-13.5 V

e3

30

2

260

10.3 mm

10 V

Voltage References

Voltage references are electronic devices used to provide a stable, precise voltage output that is independent of changes in temperature, load, or input voltage. They are used in a wide range of electronic applications, including instrumentation, data acquisition systems, and power supplies.

Voltage references are typically designed to output a fixed voltage value, such as 2.5V or 5V, and can be based on various technologies, including zener diodes, bandgap references, and temperature-compensated voltage references.

Zener diode-based voltage references work by using the reverse breakdown voltage of a zener diode to generate a stable reference voltage. Bandgap references use the voltage difference between two junctions in a bipolar transistor to generate a stable voltage reference. Temperature-compensated voltage references use a combination of circuit elements to compensate for temperature changes and provide a stable voltage output.

Voltage references typically have a high level of accuracy and low drift over time, making them suitable for use in precision applications. They may also include features such as low power consumption, low noise, and short-circuit protection.