Part | RoHS | Manufacturer | Logic IC Type | Temperature Grade | Terminal Form | No. of Terminals | Package Code | Package Shape | Total Dose (V) | Package Body Material | Surface Mount | Input Conditioning | No. of Functions | No. of Taps/Steps | Maximum Frequency At Nominal Supply | Technology | Screening Level | No. of Inputs | No. of Bits | Programmable Delay Line | Packing Method | Nominal Supply Voltage / Vsup (V) | Power Supplies (V) | Load Capacitance (CL) | No. of Inverted Outputs | Package Style (Meter) | Package Equivalence Code | Propagation Delay (tpd) | Maximum I (ol) | Sub-Category | Terminal Pitch | Maximum Operating Temperature | Output Characteristics | Trigger Type | Maximum Same Edge Skew (tskwd) | Minimum Operating Temperature | Terminal Finish | No. of True Outputs | Terminal Position | Control Type | Minimum fmax | 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) | No. of Outputs | Peak Reflow Temperature (C) | Length | Family |
---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
Motorola |
LOW SKEW CLOCK DRIVER |
INDUSTRIAL |
GULL WING |
14 |
SOP |
RECTANGULAR |
PLASTIC/EPOXY |
YES |
STANDARD |
1 |
CMOS |
5 |
5 |
50 pF |
2 |
SMALL OUTLINE |
SOP14,.25 |
24 Amp |
Clock Drivers |
1.27 mm |
85 Cel |
1.5 ns |
-40 Cel |
TIN LEAD |
4 |
DUAL |
110 MHz |
R-PDSO-G14 |
6 V |
1.75 mm |
3.9 mm |
Not Qualified |
2 V |
MAX PART TO PART SKEW = 5.5NS |
e0 |
8.65 mm |
88913 |
||||||||||||||||||||
Motorola |
PLL BASED CLOCK DRIVER |
COMMERCIAL |
GULL WING |
20 |
SOP |
RECTANGULAR |
PLASTIC/EPOXY |
YES |
STANDARD |
1 |
CMOS |
3.3 |
3.3 |
1 |
SMALL OUTLINE |
SOP20,.4 |
Clock Drivers |
1.27 mm |
70 Cel |
3-STATE |
1 ns |
0 Cel |
Tin/Lead (Sn/Pb) |
4 |
DUAL |
66 MHz |
R-PDSO-G20 |
3.6 V |
2.65 mm |
7.5 mm |
Not Qualified |
3 V |
OUTPUT FREQUENCY RATIOS ARE 0.5F/1.0F/2.0F; MEETS 68030, 68040 & 68060 SKEW REQUIREMENTS |
e0 |
12.8 mm |
LVCMOS/LVTTL |
|||||||||||||||||||||
Motorola |
PLL BASED CLOCK DRIVER |
INDUSTRIAL |
GULL WING |
32 |
LQFP |
SQUARE |
PLASTIC/EPOXY |
YES |
STANDARD |
1 |
CMOS |
2.5 |
2.5/3.3 |
0 |
FLATPACK, LOW PROFILE |
QFP32,.35SQ,32 |
24 Amp |
Clock Drivers |
.8 mm |
85 Cel |
3-STATE |
.2 ns |
-40 Cel |
11 |
QUAD |
100 MHz |
S-PQFP-G32 |
2.625 V |
1.6 mm |
7 mm |
Not Qualified |
2.375 V |
CAN ALSO OPERATE WITH 3.3V SUPPLY |
7 mm |
|||||||||||||||||||||||
Motorola |
LOW SKEW CLOCK DRIVER |
INDUSTRIAL |
GULL WING |
32 |
LQFP |
SQUARE |
PLASTIC/EPOXY |
YES |
DIFFERENTIAL MUX |
1 |
ECL |
2.5 |
2.5/3.3 |
0 |
FLATPACK, LOW PROFILE |
QFP32,.35SQ,32 |
4.4 ns |
15 Amp |
Clock Drivers |
.8 mm |
85 Cel |
3-STATE |
.15 ns |
-40 Cel |
12 |
QUAD |
350 MHz |
S-PQFP-G32 |
2.625 V |
1.6 mm |
7 mm |
Not Qualified |
2.375 V |
CAN ALSO OPERATE WITH 3.3V SUPPLY |
7 mm |
||||||||||||||||||||||
Motorola |
LOW SKEW CLOCK DRIVER |
INDUSTRIAL |
GULL WING |
52 |
LQFP |
SQUARE |
PLASTIC/EPOXY |
YES |
DIFFERENTIAL MUX |
1 |
2.5 |
0 |
FLATPACK, LOW PROFILE |
7 ns |
.65 mm |
85 Cel |
3-STATE |
.3 ns |
-40 Cel |
15 |
QUAD |
S-PQFP-G52 |
2.625 V |
1.7 mm |
10 mm |
Not Qualified |
2.375 V |
CAN ALSO OPERATE WITH 3.3V SUPPLY |
10 mm |
Clock drivers and buffers are two electronic components commonly used in digital systems to control the timing and distribution of clock signals.
Clock drivers are electronic components that generate a clock signal and distribute it to multiple components or devices within a digital system. The clock signal is a periodic waveform that synchronizes the timing of different operations within the system. The clock driver typically amplifies and shapes the clock signal to ensure that it meets the timing requirements of the system.
Buffers, on the other hand, are electronic components that amplify and isolate signals. In digital systems, buffers are often used to distribute clock signals to multiple components without degrading the quality of the signal. Buffers can help to reduce signal distortion, noise, and jitter, which can be particularly important in high-speed digital systems.
Buffers can also be used to isolate signals and prevent interference between different components or devices. They can be particularly useful in situations where the output of one device or component could damage another device or component.
Clock drivers and buffers can be used together to distribute clock signals throughout a digital system while maintaining signal integrity. The clock driver generates the clock signal and distributes it to the buffers, which then amplify and isolate the signal before distributing it to the various components or devices within the system.