DIP Delay Lines 8

Reset All
Part RoHS Manufacturer Logic IC Type Temperature Grade Terminal Form No. of Terminals Package Code Package Shape Package Body Material Nominal Total Delay (td) Surface Mount No. of Functions No. of Taps/Steps Technology Screening Level Nominal Output Impedance (Z0) Programmable Delay Line Packing Method Nominal Supply Voltage / Vsup (V) Power Supplies (V) Load Capacitance (CL) Package Style (Meter) Package Equivalence Code Maximum I (ol) Sub-Category Terminal Pitch Maximum Operating Temperature Output Characteristics Minimum Operating Temperature Terminal Finish Terminal Position JESD-30 Code Moisture Sensitivity Level (MSL) Maximum Supply Voltage (Vsup) Maximum Seated Height Width Qualification Output Polarity Minimum Supply Voltage (Vsup) Maximum Power Supply Current (ICC) Additional Features JESD-609 Code Maximum Time At Peak Reflow Temperature (s) Peak Reflow Temperature (C) Length Family Maximum Input Frequency (fmax)

604-4

Datatronics

ACTIVE DELAY LINE

COMMERCIAL

THROUGH-HOLE

8

DIP

RECTANGULAR

PLASTIC/EPOXY

4 ns

NO

1

5

NO

5

5

IN-LINE

DIP8/16,.3

Delay Lines

2.54 mm

70 Cel

0 Cel

DUAL

R-PDIP-T8

5.25 V

8 mm

10.16 mm

Not Qualified

INVERTED

4.75 V

32 mA

22.86 mm

604-5

Datatronics

ACTIVE DELAY LINE

COMMERCIAL

THROUGH-HOLE

8

DIP

RECTANGULAR

PLASTIC/EPOXY

5 ns

NO

1

5

NO

5

5

IN-LINE

DIP8/16,.3

Delay Lines

2.54 mm

70 Cel

0 Cel

DUAL

R-PDIP-T8

5.25 V

8 mm

10.16 mm

Not Qualified

INVERTED

4.75 V

32 mA

22.86 mm

604-6

Datatronics

ACTIVE DELAY LINE

COMMERCIAL

THROUGH-HOLE

8

DIP

RECTANGULAR

PLASTIC/EPOXY

6 ns

NO

1

5

NO

5

5

IN-LINE

DIP8/16,.3

Delay Lines

2.54 mm

70 Cel

0 Cel

DUAL

R-PDIP-T8

5.25 V

8 mm

10.16 mm

Not Qualified

INVERTED

4.75 V

32 mA

22.86 mm

84309

Lexor

ACTIVE DELAY LINE

COMMERCIAL

THROUGH-HOLE

8

DIP

RECTANGULAR

PLASTIC/EPOXY

150 ns

NO

1

5

TTL

NO

5

IN-LINE

DIP8/14,.3

2.54 mm

70 Cel

0 Cel

DUAL

R-PDIP-T14

5.25 V

7.62 mm

TRUE

4.75 V

21 mm

84309

84316

Lexor

ACTIVE DELAY LINE

COMMERCIAL

THROUGH-HOLE

8

DIP

RECTANGULAR

PLASTIC/EPOXY

500 ns

NO

1

5

TTL

NO

5

IN-LINE

DIP8/14,.3

2.54 mm

70 Cel

0 Cel

DUAL

R-PDIP-T14

5.25 V

7.62 mm

TRUE

4.75 V

21 mm

84316

DS1004C-303

Maxim Integrated

SILICON DELAY LINE

COMMERCIAL

THROUGH-HOLE

8

DIP

RECTANGULAR

PLASTIC/EPOXY

NO

1

5

CMOS

NO

5

IN-LINE

2.54 mm

70 Cel

0 Cel

TIN LEAD

DUAL

R-PDIP-T8

5.25 V

4.572 mm

7.62 mm

Not Qualified

TRUE

4.75 V

e0

20

240

9.375 mm

CMOS

MXD1013PA030

Maxim Integrated

SILICON DELAY LINE

INDUSTRIAL

THROUGH-HOLE

8

DIP

RECTANGULAR

PLASTIC/EPOXY

30 ns

NO

3

1

CMOS

NO

5

5

IN-LINE

DIP8,.3

Delay Lines

2.54 mm

85 Cel

-40 Cel

TIN LEAD

DUAL

R-PDIP-T8

5.25 V

4.572 mm

7.62 mm

Not Qualified

TRUE

4.75 V

70 mA

BOTH LEADING & TRAILING EDGE ACCURACY

e0

245

9.375 mm

1013

DS1010-1000

Maxim Integrated

SILICON DELAY LINE

COMMERCIAL

THROUGH-HOLE

14

DIP

RECTANGULAR

PLASTIC/EPOXY

1000 ns

NO

1

10

CMOS

NO

5

IN-LINE

2.54 mm

70 Cel

0 Cel

TIN LEAD

DUAL

R-PDIP-T14

5.25 V

4.572 mm

7.62 mm

Not Qualified

TRUE

4.75 V

e0

20

240

19.05 mm

1010

Delay Lines

A delay line is an electronic component used in digital systems to introduce a delay or a time lag in a signal. Delay lines are commonly used in digital systems that require precise timing, synchronization, or control of signals.

Delay lines can be passive or active, depending on the method used to introduce the delay in the signal. Passive delay lines use passive components, such as capacitors, inductors, and resistors, to introduce the delay in the signal. Active delay lines use active components, such as amplifiers, to introduce the delay in the signal.

Delay lines can also be fixed or variable, depending on whether the delay introduced in the signal is fixed or can be adjusted. Fixed delay lines introduce a fixed delay in the signal, while variable delay lines can be adjusted to introduce a variable delay in the signal.

Delay lines are often used in digital systems that require precise timing or synchronization between different components or devices. For example, in a memory system, a delay line may be used to ensure that the signals sent to and received from the memory chips are synchronized and aligned with the clock signal.

Delay lines can also be used to compensate for signal propagation delays caused by long transmission lines or cables. In this case, the delay line is used to introduce a delay in the signal to compensate for the delay caused by the transmission line or cable.