When digital signals move between sensors, processors, and interface circuits, they must follow defined logic rules. If signal conditioning and logic decision blocks are not properly handled, systems can show incorrect switching behavior, timing mismatches, or unstable state transitions. In many designs, raw signals cannot directly connect to processors or control devices. Logic ICs help solve this by providing predictable digital logic operations that keep signal behavior consistent across the system.
| Image | Part Number / Manufacturer | Description / Specs | MOQ | Datasheet | RFQ | |
|---|---|---|---|---|---|---|
| ATF16LV8C-10SI Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 8MC 10NS 20SOIC | 1 | ||||
| ATF16LV8C-10PI Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 8MC 10NS 20DIP | 1 | ||||
| ATF22V10CQZ-20PI Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 20NS 24DIP | 1 | ||||
| ATF22V10C-15XC Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 15NS 24TSSOP | 1 | ||||
| ATF22V10C-15SI Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 15NS 24SOIC | 1 | ||||
| ATF22V10C-15PI Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 15NS 24DIP | 1 | ||||
| ATF22V10C-15PC Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 15NS 24DIP | 1 | ||||
| ATF22V10C-15JI Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 15NS 28PLCC | 1 | ||||
| ATF22V10C-15JC Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 15NS 28PLCC | 1 | ||||
| ATF16V8BQ-10SC Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10NS 20SOIC | 1 | ||||
| ATF22V10CZ-15SI Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 15NS 24SOIC | 1 | ||||
| ATF22V10CZ-15PI Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 15NS 24DIP | 1 | ||||
| ATF22V10CZ-15JI Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 15NS 28PLCC | 1 | ||||
| ATF22V10CZ-12XC Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 12NS 24TSSOP | 1 | ||||
| ATF22V10CZ-12PC Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 12NS 24DIP | 1 | ||||
| ATF22V10CZ-12JC Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 12NS 28PLCC | 1 | ||||
| ATF22V10CQZ-20XI Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 20NS 24TSSOP | 1 | ||||
| ATF22V10CQZ-20XC Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 20NS 24TSSOP | 1 | ||||
| ATF22V10CQZ-20JI Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 20NS 28PLCC | 1 | ||||
| ATF22V10CQ-15XI Manufacturer: Microchip Technology Category: PLDs Programmable Logic Device | IC PLD 10MC 15NS 24TSSOP | 1 |
Logic ICs are usually selected during early digital design stages and matched to system voltage levels, timing requirements, and interface standards. When these ICs reach end-of-life, replacing them can be difficult. Differences in propagation delay, switching thresholds, or output drive characteristics can cause timing failures or signal integrity problems.
This is common in industrial, telecom, and long-life embedded systems where designs remain unchanged for many years. Maintenance teams often require the same logic IC to avoid redesign or revalidation. Delays in sourcing compatible logic ICs can lead to production delays and higher maintenance costs.
Maketronics supports global engineering and procurement teams with reliable sourcing of both active and obsolete Logic ICs.
A logic IC is an integrated circuit that performs digital logic functions such as AND, OR, NOT, NAND, NOR, XOR, and signal buffering.
They ensure predictable signal processing, maintain timing accuracy, and control digital decision logic between system components.
TTL logic offers fast switching speeds but higher power consumption, while CMOS logic provides lower power consumption and higher noise immunity.
Differences in propagation delay, switching thresholds, and drive capability can affect timing and signal integrity, requiring validation before replacement.