In synchronous digital systems, timing is not just a performance parameter but a functional requirement. Processors, communication interfaces, memory devices, and high-speed peripherals all rely on stable clock signals to operate correctly. If clock timing drifts, has excessive jitter, or is not aligned properly between devices, system behavior can become unpredictable. Data errors, communication failure, or complete system instability can occur. Clock generator ICs solve this by producing accurate and stable timing signals required by different system blocks.
| Image | Part Number / Manufacturer | Description / Specs | MOQ | Datasheet | RFQ | |
|---|---|---|---|---|---|---|
| 6109 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP SOIC 44 (2 X 22) | 1 | ||||
| 5240 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP DIP 40 (2 X 20) | 1 | ||||
| 5220 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP DIP 20 (2 X 10) | 1 | ||||
| 5214 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP DIP 14 (2 X 7) | 1 | ||||
| 6151 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP QFP 144 (13 X 13) | 1 | ||||
| 6108 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP SOIC 40 (2 X 20) | 1 | ||||
| 6107 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP SOIC 32 (2 X 16) | 1 | ||||
| 5998A Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP QFP 240 (17 X 17) | 1 | ||||
| 5972 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP SSOP 24 (2 X 12) | 1 | ||||
| 5969A Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP SSOP 20 (2 X 10) | 1 | ||||
| 5969 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP SSOP 20 (2 X 10) | 1 | ||||
| 5961-2 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP QFP 44 (4 X 11) | 1 | ||||
| 5961 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP QFP 44 (4 X 11) | 1 | ||||
| 5894 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP SSOP 56 (2 X 28) | 1 | ||||
| 5893 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP SSOP 48 (2 X 24) | 1 | ||||
| 5888-2 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP QFP 64 (4 X 16) | 1 | ||||
| 5888 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP QFP 64 (4 X 16) | 1 | ||||
| 5878 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP PLCC 32 (2 X 7/2 X 9) | 1 | ||||
| 5867-2 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP QFP 80 (4 X 20) | 1 | ||||
| 5777 Manufacturer: Pomona Electronics Category: IC Clips | TEST CLIP QFP 100 (4 X 25) | 1 |
Clock generator ICs are typically selected early during system architecture design because they define timing behavior across multiple system blocks. Once integrated, replacing them can be complex. Differences in jitter performance, output phase alignment, or frequency accuracy can impact system communication stability and data integrity.
This is especially relevant in long-life products such as industrial automation equipment, medical devices, and telecom infrastructure. Many designs are validated with specific timing characteristics, and changing the clock source may require full system revalidation, including EMI, signal integrity, and functional testing.
Repair and maintenance teams often need the same clock generator IC to maintain system compatibility without redesign. Delays in sourcing compatible clock generator ICs can lead to production delays, service downtime, and increased operational costs.
Maketronics assists global engineering and procurement teams with reliable sourcing of both active and obsolete clock generator ICs.
A clock generator IC produces stable timing signals used to synchronize processors, memory, and communication interfaces.
Stable clock signals ensure accurate data transfer, proper synchronization, and reliable system operation.
Clock jitter is timing variation in a clock signal. Excessive jitter can cause communication errors, data corruption, and timing failures in high-speed systems.
Frequency accuracy, jitter performance, phase alignment, and output compatibility must be verified to maintain system stability and timing integrity.