5M80ZM64C4N - MAX V CPLD 64 Logic Elements 64-MBGA | Intel / Altera
MPN： 5M80ZM64C4N ✓ 啟用中5M80ZM64C4N 概覽
What is a CPLD? A Complex Programmable Logic Device (CPLD) is a non-volatile, instantly-on programmable logic device that sits between simple PAL/GAL devices and larger FPGAs. CPLDs use a coarse-grained AND-OR macro-cell fabric with on-chip flash or EEPROM configuration, so they power up in a known state with no external boot PROM. The MAX V family targets glue-logic, bus-interface bridging, power-sequencing, and I/O expansion roles where deterministic timing, instant-on behaviour, and long-term field-reprogrammability are required.
Key differentiating features of the 5M80ZM64C4N include 64 macro cells / 64 LEs, 30 Kb of user flash memory, an integrated 8 Kb user SRAM, on-chip User Flash for customer data storage, support for JTAG (IEEE 1149.1) and in-system programmability, plus an 8-input LUT structure that gives surprisingly wide decode capability for a 64-LE part. The 1.8 V core with multi-volt I/O eliminates level shifters in mixed-voltage boards. The device is supplied in a 64-ball MBGA measuring only 4.5 mm × 4.5 mm with a 0.5 mm ball pitch.
Technically, the MAX V CPLD uses a non-volatile flash configuration cell that loads into SRAM-based logic on power-up, providing instant-on operation. The 7.5 ns tPD1 timing is consistent across commercial and industrial temperature grades, and the device supports up to 79 user I/Os in the MBGA package. Internal global clock networks and per-pin output enable registers allow small state machines and registered I/O protocols to be implemented without external clock buffers.
Typical applications for the 5M80ZM64C4N include I2C and SPI bus multiplexing, address decoding and ChipSelect generation in microcontroller systems, power-supply sequencing for multi-rail processors, LED driver control, I/O voltage translation (1.8/2.5/3.3/5 V), and replacement of multiple discrete 74-series logic gates. Designers also use it as a "reset and glue-logic brain" in industrial controllers where instant-on and field reprogrammability are valued over the larger logic capacity of an FPGA.
Design consideration: the MBGA package requires careful PCB footprint design and reflow profile - hand-soldering is impractical. For prototype work, the MAX V device family also ships in TQFP and EQFP packages with the same JTAG chain, so firmware can be developed on a TQFP board and deployed on the MBGA version with no bitstream changes.
This page synthesises distributor pricing, drop-in same-package alternatives, and practical design notes not collected in the manufacturer datasheet alone, helping engineers source and qualify a 5M80ZM64C4N replacement for both new designs and existing production boards.
直接替換替代品，適用於 5M80ZM64C4N — 相同封裝，腳位對腳位相容。需重新設計 PCB 的不同封裝零件不列入。
此系列的變體
與下列產品可直接替換的同系列型號： 5M80ZM64C4N （相同外形與佔位） — 差異在於 Package, Configuration Memory, Operating Temperature, RoHS Status, Programming Interface.
5M80ZE64C4N
✅ 直接替換 ⚠️ 規格未經驗證聯絡詢價
查看資料表 →5M80ZE64C5N
✅ 直接替換 ⚠️ 規格未經驗證聯絡詢價
查看資料表 →5M80ZE64I5N
✅ 直接替換 ⚠️ 規格未經驗證聯絡詢價
查看資料表 →5M80ZE64A5N
✅ 直接替換 ⚠️ 規格未經驗證聯絡詢價
查看資料表 →5M80ZE64C4/I5N
✅ 直接替換 ⚠️ 規格未經驗證聯絡詢價
查看資料表 →5M40ZE64C4N
✅ 直接替換 ⚠️ 規格未經驗證聯絡詢價
查看資料表 →5M80ZM64C4N 最大額定值與電氣特性
| Family | MAX V |
| Device | 5M80Z |
| Logic Elements (LE) | 64 |
| Macro Cells | 64 |
| Maximum User I/O | 79 |
| User Flash Memory | 30 Kbit |
| User SRAM | 8 Kbit |
| Maximum Operating Frequency | 184.1 MHz |
| Pin-to-Pin Logic Delay (tPD1) | 7.5 ns |
| Core Supply Voltage | 1.8 V |
| Multi-Volt I/O Support | 1.8 V / 2.5 V / 3.3 V / 5.0 V |
| 封裝 | 64-ball MBGA (Micro FBGA), 4.5 mm × 4.5 mm, 0.5 mm pitch |
| Configuration Memory | Non-volatile on-chip flash |
| Programming Interface | JTAG (IEEE 1149.1) / ISP |
| Operating Temperature (Commercial) | 0 °C to +85 °C |
| RoHS 狀態 | Compliant |
5M80ZM64C4N 64-ball mbga (micro fbga), 4.5 mm × 4.5 mm, 0.5 mm pitch 腳位配置指南
5M80ZM64C4N（64-ball mbga (micro fbga), 4.5 mm × 4.5 mm, 0.5 mm pitch 封裝）的腳位配置。 此數位 IC 包含 GPIO、通訊介面（UART、SPI、I2C）與電源腳位。替代腳位功能與配置選項請參閱製造商資料表。對嵌入式系統設計與 PCB 佈局至關重要。
無詳細腳位定義資料： 5M80ZM64C4N.
請參閱 資料表 以查看完整腳位配置。
典型應用
5M80ZM64C4N 適用於 6 應用s: I2C / SPI Bus Multiplexing, Address Decoding & ChipSelect Generation, Power Supply Sequencing, I/O Voltage Translation (1.8/2.5/3.3/5 V), Discrete 74-Series Logic Replacement, LED Display & Signage Control.
I2C / SPI Bus Multiplexing
The 5M80ZM64C4N is well suited to multiplexing I2C and SPI buses between a host microcontroller and multiple peripherals, where its 7.5 ns pin-to-pin delay and 64 LUTs are more than enough to implement 4-to-1 channel selectors, address translators, and bus arbiter state machines. With 79 user I/Os in the 64-ball MBGA, the device can drive up to 4 SPI peripherals (8 lines each at most) or fan an I2C bus out to many slaves. Its non-volatile instant-on configuration removes the need for a boot PROM, so the bus-mux is operational before the host MCU finishes its own boot sequence - critical in systems where peripherals must be live during host reset.
推薦
Address Decoding & ChipSelect Generation
For address decoding and ChipSelect generation in microprocessor systems, the 5M80ZM64C4N's 8-input LUTs allow wide address ranges to be decoded in a single logic level - a useful property for decoding 24-bit address buses where 5M80Z LUTs map directly to the upper address bits. The 64-LE / 64-macro-cell fabric comfortably handles 8-16 active-low ChipSelect outputs with registered enables, and the 184 MHz fMAX keeps the decoded strobe well ahead of typical 50-100 MHz host bus cycles. Because the configuration is flash-backed, the ChipSelect map survives power cycles with no extra logic.
推薦
Power Supply Sequencing
The 5M80ZM64C4N is frequently used as a multi-rail power sequencer in FPGA, ASIC, and SoC boards where several rails must come up in a defined order to meet in-rush and POR requirements. Its 64 macro cells implement per-rail enable state machines with adjustable delays set by internal counters, and its 1.8 V core plus 1.8/2.5/3.3/5.0 V I/O banks let it interface directly to enable pins on most POL regulators without level shifters. The instant-on behaviour ensures the rails are sequenced correctly even after a brown-out, eliminating the race conditions that discrete RC sequencers suffer.
推薦
I/O Voltage Translation (1.8/2.5/3.3/5 V)
The 5M80ZM64C4N's multi-volt I/O banks make it a natural voltage translator between legacy 5 V peripherals and modern 1.8 V or 3.3 V microcontrollers. Each user I/O can be configured independently for 1.8, 2.5, 3.3, or 5.0 V output levels, so a single device can bridge a 5 V parallel bus to a 1.8 V camera interface in the same board. With 79 user I/Os available in the MBGA, the part handles full 16-bit data plus 8-bit control buses; the 7.5 ns tPD1 adds only modest latency versus a passive level shifter.
推薦
Discrete 74-Series Logic Replacement
Designers frequently replace a board of 74HC/74AHC glue-logic chips with a single 5M80ZM64C4N, collapsing inventory and PCB area. The 64 LUTs in the MBGA package can map dozens of small gates, latches, and one-shots into one device, and re-spinning the design means re-programming the flash - no new BOM or layout. The 30 Kbit user flash also stores board-revision codes and serial numbers, useful for traceability that discrete logic cannot provide.
推薦
LED Display & Signage Control
The 5M80ZM64C4N's 79 user I/Os and deterministic 7.5 ns timing make it a popular scan-matrix controller for small LED dot-matrix and 7-segment displays, as well as for addressable LED strips (WS2812 / SK6812). The LUT-based fabric drives row/column scanning at up to a few MHz refresh rates, while the user flash stores lookup tables for fonts and animation frames. Its non-volatile configuration means LED signs resume their previous state immediately after power-on - useful in retail and signage where blanking on boot is unacceptable.
推薦
推薦產品摘要
工程參考資料，適用於 5M80ZM64C4N — 比較、設計指引及合規資訊。
選型指南
與替代品比較
| 參數 | 本產品 | 5M80ZE64C4N | 5M80ZE64C5N | 5M80ZE64I5N | 5M80ZE64A5N | 5M40ZE64C4N |
|---|---|---|---|---|---|---|
| Brand | Intel | Intel | Intel | Intel | Intel | Intel |
| Package | 64-ball MBGA | 64-ball MBGA - same | 64-ball MBGA - same | 64-ball MBGA - same | 64-ball MBGA - same | 64-ball MBGA - same |
| Logic Elements | 64 | 64 | 64 | 64 | 64 | 40 |
| Macro Cells | 64 | 64 | 64 | 64 | 64 | 40 |
| Pin-to-Pin Delay (tPD1) | 7.5 ns | 7.5 ns | ~9 ns | ~9 ns | ~10 ns | 7.5 ns |
| Operating Temperature | 0 to +85 C (Commercial) | 0 to +85 C | 0 to +85 C | -40 to +100 C (Industrial) | 0 to +85 C | 0 to +85 C |
| User Flash | 30 Kbit | 30 Kbit | 30 Kbit | 30 Kbit | 30 Kbit | 30 Kbit |
主要差異化特點
- Drop-in same-footprint across C4/C5/A5/I5 speed and temperature grades (對比5M80ZE64C5N / 5M80ZE64I5N / 5M80ZE64A5N)
- Higher LE count for wider decode trees (對比5M40ZE64C4N)
- Non-volatile instant-on configuration with 30 Kbit user flash (對比5M80ZE64C4N (same part, listed for clarity))
設計說明
The 64-ball MBGA uses a 0.5 mm ball pitch on a 4.5 mm × 4.5 mm body. Use a 4-layer PCB with a continuous ground plane beneath the part and micro-via-in-pad (or dog-bone fan-out) for the inner balls. Solder paste stencil apertures of 0.30-0.35 mm with 0.10-0.13 mm thickness give reliable reflow on ENIG or OSP finishes. Hand-soldering is impractical - plan on reflow or hot-air rework with a preheater.
The 5M80ZM64C4N requires a clean 1.8 V core supply. Decouple each VCC pin with a 0.1 µF X7R 0402 ceramic placed within 2 mm of the ball, and add one 10 µF bulk capacitor near the package. The multi-volt I/O banks are powered separately from the VCCIO pins; tie unused VCCIO pins to the same rail as the active bank (do not leave them floating) so internal ESD structures are biased correctly.
Reserve the four JTAG balls (TCK, TMS, TDI, TDO, plus TRST if present) for a dedicated programming header, even if in-system programming is not used in production - field firmware updates are far easier with JTAG access. Keep the JTAG traces short (<50 mm) and isolate them from switching signals. Add a 10 kΩ pull-up on TCK and TDI, and a 10 kΩ pull-up on TMS as recommended in the MAX V handbook.
Do not confuse the 5M80Z 'M' (64-ball MBGA) pin-out with the 'E' (64-ball MBGA, different revision) or 'T' (TQFP) packages - the ball maps differ between packages even though the die is identical. When porting a MAX II design to MAX V, regenerate the I/O assignments from scratch and re-validate the pin map against the MAX V pin-out file - MAX II used slightly different JTAG ball assignments.
合規資訊
RoHS and lead-free compliance confirmed by Intel / Altera product family datasheet and distributor parametric pages. REACH and conflict-mineral status not explicitly listed in the verified web data - marked as unknown.
