5M160ZE64I4N - MAX V CPLD, 64-Pin EQFP | Intel
MPN: 5M160ZE64I4N ✓ Active| Qty | Unit Price | Extended |
|---|---|---|
| 1 | $0 | $0.00 |
| 10 | $0 | $0.00 |
| 100 | $0 | $0.00 |
| 500 | $0 | $0.00 |
| 1,000 | $0 | $0.00 |
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Request Alternatives5M160ZE64I4N Maximum Ratings & Electrical Characteristics
| Product Type | Complex Programmable Logic Device |
| Device Family | MAX V |
| Manufacturer | Altera Corporation |
| Package | 64-pin EQFP |
| Device Marking | 5M160ZE64I4N |
| Programmable Logic Technology | CPLD |
| Design Category | Low cost and low power |
| Integration Benefit | Greater density and I/Os per footprint |
| Mounting Type | Surface Mount |
| RoHS Status | RoHS Compliant |
| Lead-Free Status | Lead free |
| Programmability | In-system programmable device; methodology not verified |
5M160ZE64I4N 64-pin eqfp Pin Configuration Guide
Complete pinout information for 5M160ZE64I4N (64-pin eqfp package). This digital IC includes GPIO, communication interfaces (UART, SPI, I2C), and power pins. Refer to the manufacturer datasheet for alternate pin functions and configuration options. Essential for embedded system design and PCB layout.
No detailed pinout data available for 5M160ZE64I4N.
Refer to the datasheet for full pin configuration.
Safe Operating Area (SOA) & Thermal Characteristics
No official SOA curve available for this digital IC. Always operate within absolute maximum ratings specified in the datasheet. Ensure adequate cooling and derate as needed.
Typical Applications
5M160ZE64I4N is suitable for 6 applications: Industrial Control Logic, Communications Interface Bridging, Embedded System Glue Logic, Test and Measurement Equipment, Legacy Board Replacement, Power-Conscious Logic Consolidation.
Industrial Control Logic
Intel 5M160ZE64I4N is a potential fit for industrial control logic because the MAX V family is positioned as a low-power CPLD platform with greater density and I/O availability per footprint. The device can consolidate glue logic, sequencing rules, and state-machine behavior around a processor or application-specific controller. Before implementation, confirm the exact logic capacity, user-I/O count, core voltage, propagation delay, and industrial temperature range from the manufacturer datasheet. Those critical values are absent from the verified snippets and must not be inferred. A 64-pin EQFP footprint can support compact control boards, but the final design also requires verification of Schmitt-trigger thresholds, output drive, clocking, and unused-pin handling.
Recommended
Communications Interface Bridging
5M160ZE64I4N may serve as a bridge or glue-logic device between communications controllers, memories, sensors, and backplane interfaces. Its identification as a MAX V CPLD supports programmable state machines and signal-conditioning logic, while the family-level density-per-footprint claim may help compact interface boards. However, no verified I/O count, I/O standard, propagation delay, or supply-voltage range is supplied, so protocol timing and voltage compatibility cannot be guaranteed. Engineers should compare clock-to-output and setup timing, confirm supported electrical interfaces, and check whether level translation is required. A candidate with a different package or pinout would be a redesign rather than a drop-in replacement.
Recommended
Embedded System Glue Logic
5M160ZE64I4N can be evaluated for embedded glue logic that requires programmable combinational and sequential behavior without the larger power and resource profile of an FPGA. The MAX V family’s low-power positioning is relevant to power-constrained embedded equipment, while a CPLD can implement decode logic, reset sequencing, interrupt handling, and peripheral adaptation. Exact current consumption and speed are not present in the verified data, so designers must retrieve the MAX V handbook and perform timing analysis. The 64-pin EQFP package also imposes board-space and escape-routing constraints. Validate I/O bank rules, configuration behavior, decoupling guidance, and unused-pin recommendations before selecting the part for a new embedded platform.
Recommended
Test and Measurement Equipment
5M160ZE64I4N is a possible logic platform for test and measurement equipment where programmable control, repeatable sequencing, and interface adaptation are required. The device can potentially implement measurement timing, trigger routing, relay control, and communication handshaking, while its MAX V classification identifies it as a CPLD rather than a conventional fixed-function IC. The supplied evidence does not verify propagation delay, toggle rate, logic capacity, or I/O electrical standards, so high-speed measurement performance cannot be claimed. Engineers should check worst-case timing rather than relying on nominal logic behavior, and should account for clock distribution, output loading, signal integrity, and test-point access in the PCB design.
Recommended
Legacy Board Replacement
5M160ZE64I4N is directly relevant when maintaining a legacy board that already specifies the same MAX V device. The complete MPN, including the 5M160ZE64I4N ordering suffix, is the strongest available identity signal, and procurement pages identify it as a low-cost, low-power CPLD. For replacement planning, obtain the original board’s exact part marking and compare it with incoming labels. Do not substitute another 5M160ZE64 suffix based only on similarity. The verified data lacks pin-level and electrical compatibility evidence, so every pin, voltage, timing limit, temperature grade, and package dimension must be checked. If the original configuration is available, preserve the programmed image and validate it in a controlled engineering build.
Recommended
Power-Conscious Logic Consolidation
5M160ZE64I4N may help consolidate discrete logic functions into one programmable device, potentially reducing component count and board-level routing. The verified source positions MAX V as a low-cost, low-power CPLD family with improved density and I/O availability per footprint, which is useful when a design needs moderate programmable logic in a compact surface-mount package. Actual suitability depends on logic utilization, toggle rate, output loading, and thermal conditions, none of which are fully supplied. Estimate the resource budget from the manufacturer datasheet, simulate critical paths, and calculate current demand across operating modes. Confirm the required decoupling network and preserve signal-integrity margins when replacing multiple combinational devices.
Recommended
Recommended Products Summary
Engineering reference data for 5M160ZE64I4N — comparison, design guidance, and compliance information.
Selection Guide
Comparison with Alternatives
| Parameter | This Product |
|---|---|
| Brand | Intel / Altera Corporation |
| Package | 64-pin EQFP |
| Device Family | MAX V |
| Product Type | CPLD |
| Power Positioning | Low power |
| Density Positioning | Greater density per footprint |
| Logic Element Count | [DATA_NEEDED: logic element count] |
| User I/O Count | [DATA_NEEDED: user I/O count] |
| Operating Voltage | [DATA_NEEDED: operating voltage] |
| Propagation Delay | [DATA_NEEDED: propagation delay] |
| RoHS Status | RoHS Compliant |
Key Differentiators
- Family-level density and I/O positioning (vs 5M160ZE64C5N)
- Low-power family positioning (vs 5M160ZE64A5N)
- Specific ordering identity (vs 5M160ZE64I5N)
Design Notes
Treat the family-level low-power description as a positioning statement, not a substitute for a numeric power budget. Retrieve core-voltage, standby-current, active-current, and inrush specifications from the manufacturer handbook. Estimated: actual dissipation depends on logic depth, toggle rate, clock frequency, I/O loading, and the number of powered I/O banks, so no numerical dissipation value is calculated here. Place local decoupling capacitors at the supply pins, keep each power loop compact, and provide a stable rail that remains within the datasheet tolerance during simultaneous output switching.
Use the official 64-pin EQFP package drawing before routing. The verified snippets confirm the package family but not dimensions, lead shape, pin numbering, or exposed-pad arrangement. Follow the manufacturer land-pattern recommendation, account for package orientation and pin-1 identification, and verify all 64 signal positions against the actual device datasheet. Preserve room for decoupling near power pins, provide a continuous reference plane, and avoid routing high-speed or noisy signals beneath programmable I/O areas unless the stack-up and design rules explicitly permit it.
Do not infer electrical or pin compatibility from the first six characters of an ordering code. The supplied data does not decode the 5M160ZE64I4N suffix or confirm that variants such as 5M160ZE64C5N, 5M160ZE64C4N, or 5M160ZE64A5N share the same temperature grade, speed grade, electrical limits, and pinout. A suffix change can also alter shipping, tray, or reel options without changing the underlying device. For any replacement, compare the complete manufacturer ordering table, datasheet limits, package drawing, qualification status, and programmed design requirements; otherwise classify the candidate as unverified rather than drop-in.
Clock, reset, and high-fanout output paths should be planned before PCB placement. Although exact timing values are missing, programmable-logic timing must be evaluated with the final route, load, and I/O-standard assumptions. Keep clock traces short, provide a low-impedance ground path, separate noisy interfaces where practical, and use controlled-impedance routing when rise time or clock frequency requires it. Confirm permitted pin configurations and unused-pin states in the device handbook. Validate timing with post-fit or post-route simulation, including setup, hold, clock-to-output, and recovery/removal checks where applicable.
Compliance Information
The supplied Alibaba result states Lead Free Status / RoHS Status as lead free / RoHS Compliant. REACH, AEC-Q100, halogen-free, and conflict-minerals data are not provided and are therefore unknown.
