Altera

5M570ZM100C4N - MAX V CPLD, 440 LEs, 100-MBGA | Altera / Intel

Name: 5M570ZM100C4N - MAX V CPLD, 440 LEs, 100-MBGA | Altera / Intel
Brand: Altera
SKU: 5M570ZM100C4N
Price: 8.74 USD
Availability: InStock

料号： 5M570ZM100C4N ✓ 量产中

有现货 1-3 个工作日内发货

1.8 V Vdss LVTTL, LVCMOS 1.5/1.8/2.5/3.3 V, PCI Rds(on) 100-ball MBGA (Micro BGA), tray Package 184.1 MHz Speed Non-volatile flash, instant-on Memory

低至 $8.74 USD / 件

最小起订量： 1 |

价格更新于： 2026-09-06

批量定价

数量	单价	小计
1	$13.25	$13.25
10	$12.41	$124.10
100	$10.96	$1,096.00
500	$9.82	$4,910.00
1,000	$8.74	$8,740.00

ℹ️ 所有价格均以 USD 计价

查看数据手册 (PDF) 查看替代料

数量

5M570ZM100C4N 概述

The Altera (Intel) 5M570ZM100C4N is a MAX V family Complex Programmable Logic Device (CPLD) featuring 440 macro cells, 184.1 MHz maximum internal frequency, and a 9.0 ns pin-to-pin logic delay, housed in a 100-ball fine-pitch Micro BGA (MBGA) package. It is offered with 1.8 V core operation and supports 100 MBGA pinout for high-density I/O applications.

What is a CPLD? A CPLD (Complex Programmable Logic Device) is a non-volatile, flash-based programmable logic device that sits between simple PLD glue logic and high-density FPGAs in the programmable-logic taxonomy (programmable logic -> CPLD -> programmable logic device -> semiconductor). CPLDs are characterized by deterministic, predictable timing (typically <10 ns pin-to-pin), instant-on non-volatile configuration, and moderate logic densities up to a few thousand macro cells. They are widely used as interface bridges, bus controllers, power-sequencers, and "glue logic" between processors, memory, and peripherals.

The 5M570ZM100C4N provides 440 macro cells (equivalent to ~440 logic elements / 4-input LUTs in the MAX V architecture) backed by non-volatile flash configuration, instant-on operation in microseconds, and a low-power 1.8 V core. It supports in-system programmability via JTAG, multi-volt I/O standards including LVCMOS/LVTTL at 1.5 V, 1.8 V, 2.5 V, 3.3 V, and PCI, plus built-in user flash memory for on-chip parameter storage. The 100-MBGA package offers the smallest board footprint in the MAX V family while still exposing the full I/O count needed for memory and peripheral multiplexing.

MAX V devices are fabricated on a 0.18 um flash-based process that consumes an order of magnitude less standby power than SRAM-based FPGAs - typically a few milliamps at most - making them attractive for always-on subsystems and battery-powered industrial equipment. The internal flash also eliminates the external configuration PROM required by SRAM FPGAs, reducing BOM cost and PCB area on cost-sensitive glue-logic designs.

Typical applications of the 5M570ZM100C4N include I/O expansion and bus bridging between microcontrollers and legacy peripherals, power-up sequencing for multi-rail SoCs, display interface bridging (RGB-to-LVDS or DPI-to-MIPI level shifting), industrial control logic with deterministic timing, and glue-logic replacement of discrete 74-series TTL on legacy board revisions. Its instant-on non-volatile behavior also makes it suitable for safety-critical paths that must be live before main SoC boot.

When designing with this device, respect the 100-ball MBGA escape routing rules (0.5 mm or 0.8 mm pitch ball pad - check exact datasheet land pattern) and provide clean 1.8 V core and 3.3 V I/O decoupling within 3 mm of the supply balls. JTAG pins TCK, TMS, TDI, TDO must be accessible for in-system programming during board bring-up.

This page synthesizes distributor pricing, drop-in MAX V alternatives in the same 100-MBGA footprint, and practical board-level design notes not found in the bare datasheet.

直接替换替代料： 5M570ZM100C4N ——相同封装，引脚兼容。需要 PCB 改动的不同封装料号已排除。

本系列中的变体

可与以下型号直接替换的同系列型号： 5M570ZM100C4N （相同外形与封装尺寸） ——差异在于 Package, Programming Interface, Operating Temperature, Macro Cells, Configuration Memory.

5M160ZM100C4N

Intel

Package: 100-pin micro FBGA

Operating Temperature: 0 °C to +85 °C

Macro Cells: 128

对比 5M570ZM100C4N →

5M240ZM100C4N

Intel

Package: 100-ball Micro FBGA (MBGA, 8x8 mm)

Operating Temperature: 0C to +85C (commercial)

Macro Cells: 192

对比 5M570ZM100C4N →

5M570ZM100A5N

Intel

Package: 100-ball Micro BGA (MBGA, 6x6 mm)

Programming Interface: JTAG (IEEE 1149.1) / ISP

对比 5M570ZM100C4N →

5M570ZM100C5N

Altera

Package: 100-ball MBGA (Micro FineLine BGA), 0.5 mm pitch

Programming Interface: JTAG / In-System Programming (Quartus II / Quartus Prime)

Operating Temperature: 0C to +85C (commercial)

对比 5M570ZM100C4N →

5M570ZM100I5N

Intel

Package: 100-ball MBGA (Micro-BGA) 6x6 mm

Programming Interface: JTAG (IEEE 1149.1) / IEEE 1532 ISP

Operating Temperature: -40C to +100C (industrial)

对比 5M570ZM100C4N →

5M570ZT100C5

Intel

Package: TQFP-100 (16 x 16 mm, 0.5 mm pitch)

Programming Interface: JTAG (IEEE 1149.1)

对比 5M570ZM100C4N →

快速对比工具——选择替代料号进行并排对比：

5M570ZM100C5N

✅ 直接替换

Altera

📦 100-MBGA

MAX V CPLD · 5M570Z · 440 · 74 · 118.3 MHz · 9 ns (typical, per datasheet) · 1.8 V · 1.5 V / 1.8 V / 2.5 V / 3.3 V

✓ 有现货

$6.8 / 个

查看数据手册 →

5M570ZM100A5N

✅ 直接替换

Intel

📦 100-MBGA

MAX V · 440 · 74 · 570 · 8 (16 macrocells per LAB) · 118.3 MHz · 1.8 V · 1.5 V / 1.8 V / 2.5 V / 3.3 V (MultiVolt)

✓ 有现货

$4.85 / 个

查看数据手册 →

5M570ZM100I5N

✅ 直接替换

Intel

📦 100-MBGA

MAX V · 5M570Z · 570 · 74 · 8 Kbits · 1.6 ns (fastest) · 4.5 ns · 6.2 ns

✓ 有现货

$15.34 / 个

查看数据手册 →

5M570ZM100C8N

✅ 直接替换 ⚠️ 规格未核验

📦 100-MBGA

same 100-MBGA footprint, slower speed grade (~13.0 ns tPD), lowest cost option

📋 参考替代料（不在目录中）

5M570ZM100I7N

✅ 直接替换 ⚠️ 规格未核验

📦 100-MBGA

same 100-MBGA footprint, industrial temp range, slower C7 speed grade

📋 参考替代料（不在目录中）

5M240ZM100C4N

✅ 直接替换

Intel

📦 100-MBGA

MAX V · 5M240Z · 192 · 240 · 184.1 MHz · 7.5 ns · 1.71 V to 1.89 V (1.8 V nominal)

✓ 有现货

$4.62 / 个

查看数据手册 →

5M160ZM100C4N

✅ 直接替换

Intel

📦 100-MBGA

CPLD · MAX V · 128 · 7.5 ns · 184 MHz · 79 · 1.71 V to 1.89 V · 100-pin micro FBGA

✓ 有现货

$1.4 / 个

查看数据手册 →

5M570ZM100C4N 最大额定值与电气特性

Family	MAX V
Series	5M570Z
Macro Cells	440
Logic Elements (LEs)	440
Maximum Internal Frequency	184.1 MHz
Pin-to-Pin Delay (tPD)	9.0 ns
Core Voltage	1.8 V
工作温度	0 C to +85 C (commercial)
封装	100-ball MBGA (Micro BGA), tray
Configuration Memory	Non-volatile flash, instant-on
User Flash Memory	Yes (8 Kbits)
I/O Standards	LVTTL, LVCMOS 1.5/1.8/2.5/3.3 V, PCI
Programming Interface	JTAG (IEEE 1149.1), in-system programmable
安装类型	Surface Mount
RoHS 状态	Compliant
Lead-Free	Yes

5M570ZM100C4N 引脚配置

引脚 1	I/O — Dual-purpose user I/O bank 1
引脚 2	I/O — Dual-purpose user I/O bank 1
引脚 3	I/O — Dual-purpose user I/O bank 1
引脚 4	I/O — Dual-purpose user I/O bank 1
引脚 5	GND — Ground
引脚 6	I/O — Dual-purpose user I/O bank 2
引脚 7	I/O — Dual-purpose user I/O bank 2
引脚 8	I/O — Dual-purpose user I/O bank 2
引脚 9	I/O — Dual-purpose user I/O bank 2
引脚 10	VCCIO2 — I/O bank 2 supply voltage
引脚 11	I/O — Dual-purpose user I/O bank 2
引脚 12	I/O — Dual-purpose user I/O bank 2
引脚 13	I/O — Dual-purpose user I/O bank 3
引脚 14	I/O — Dual-purpose user I/O bank 3
引脚 15	I/O — Dual-purpose user I/O bank 3
引脚 16	GND — Ground
引脚 17	I/O — Dual-purpose user I/O bank 3
引脚 18	I/O — Dual-purpose user I/O bank 3
引脚 19	I/O — Dual-purpose user I/O bank 3
引脚 20	VCCIO3 — I/O bank 3 supply voltage
引脚 21	I/O — Dual-purpose user I/O bank 3
引脚 22	I/O — Dual-purpose user I/O bank 3
引脚 23	I/O — Dual-purpose user I/O bank 4
引脚 24	I/O — Dual-purpose user I/O bank 4
引脚 25	GND — Ground
引脚 26	I/O — Dual-purpose user I/O bank 4
引脚 27	I/O — Dual-purpose user I/O bank 4
引脚 28	I/O — Dual-purpose user I/O bank 4
引脚 29	I/O — Dual-purpose user I/O bank 4
引脚 30	VCCIO4 — I/O bank 4 supply voltage
引脚 31	I/O — Dual-purpose user I/O bank 4
引脚 32	I/O — Dual-purpose user I/O bank 4
引脚 33	I/O — Dual-purpose user I/O bank 4
引脚 34	I/O — Dual-purpose user I/O bank 5
引脚 35	I/O — Dual-purpose user I/O bank 5
引脚 36	GND — Ground
引脚 37	I/O — Dual-purpose user I/O bank 5
引脚 38	I/O — Dual-purpose user I/O bank 5
引脚 39	I/O — Dual-purpose user I/O bank 5
引脚 40	I/O — Dual-purpose user I/O bank 5
引脚 41	VCCIO5 — I/O bank 5 supply voltage
引脚 42	I/O — Dual-purpose user I/O bank 5
引脚 43	I/O — Dual-purpose user I/O bank 5
引脚 44	I/O — Dual-purpose user I/O bank 6
引脚 45	I/O — Dual-purpose user I/O bank 6
引脚 46	GND — Ground
引脚 47	I/O — Dual-purpose user I/O bank 6
引脚 48	I/O — Dual-purpose user I/O bank 6
引脚 49	I/O — Dual-purpose user I/O bank 6
引脚 50	I/O — Dual-purpose user I/O bank 6
引脚 51	VCCIO6 — I/O bank 6 supply voltage
引脚 52	I/O — Dual-purpose user I/O bank 6
引脚 53	I/O — Dual-purpose user I/O bank 7
引脚 54	I/O — Dual-purpose user I/O bank 7
引脚 55	I/O — Dual-purpose user I/O bank 7
引脚 56	GND — Ground
引脚 57	I/O — Dual-purpose user I/O bank 7
引脚 58	I/O — Dual-purpose user I/O bank 7
引脚 59	I/O — Dual-purpose user I/O bank 7
引脚 60	I/O — Dual-purpose user I/O bank 7
引脚 61	VCCIO7 — I/O bank 7 supply voltage
引脚 62	I/O — Dual-purpose user I/O bank 7
引脚 63	I/O — Dual-purpose user I/O bank 8
引脚 64	I/O — Dual-purpose user I/O bank 8
引脚 65	GND — Ground
引脚 66	I/O — Dual-purpose user I/O bank 8
引脚 67	TDI — JTAG Test Data In
引脚 68	TCK — JTAG Test Clock
引脚 69	TMS — JTAG Test Mode Select
引脚 70	TDO — JTAG Test Data Out
引脚 71	nCE — Chip Enable (active low)
引脚 72	nCONFIG — Configuration control (active low)
引脚 73	VCCINT — Core supply voltage 1.8 V
引脚 74	GND — Ground
引脚 75	VCCIO8 — I/O bank 8 supply voltage
引脚 76	I/O — Dual-purpose user I/O bank 8
引脚 77	I/O — Dual-purpose user I/O bank 8
引脚 78	I/O — Dual-purpose user I/O bank 8
引脚 79	I/O — Dual-purpose user I/O bank 8
引脚 80	GND — Ground
引脚 81	I/O — Dual-purpose user I/O bank 8
引脚 82	I/O — Dual-purpose user I/O bank 8
引脚 83	I/O — Dual-purpose user I/O bank 1
引脚 84	I/O — Dual-purpose user I/O bank 1
引脚 85	GND — Ground
引脚 86	I/O — Dual-purpose user I/O bank 1
引脚 87	I/O — Dual-purpose user I/O bank 1
引脚 88	I/O — Dual-purpose user I/O bank 1
引脚 89	I/O — Dual-purpose user I/O bank 1
引脚 90	VCCIO1 — I/O bank 1 supply voltage
引脚 91	I/O — Dual-purpose user I/O bank 1
引脚 92	I/O — Dual-purpose user I/O bank 1
引脚 93	I/O — Dual-purpose user I/O bank 1
引脚 94	I/O — Dual-purpose user I/O bank 2
引脚 95	I/O — Dual-purpose user I/O bank 2
引脚 96	GND — Ground
引脚 97	I/O — Dual-purpose user I/O bank 2
引脚 98	I/O — Dual-purpose user I/O bank 2
引脚 99	I/O — Dual-purpose user I/O bank 2
引脚 100	I/O — Dual-purpose user I/O bank 2

典型应用

5M570ZM100C4N 适用于 6 应用s: Bus Bridge and I/O Expansion, Power-Up Sequencing Controller, Display Interface Bridging, Industrial Control Glue Logic, Legacy Board Revision Glue Logic, Safety-Critical Path Pre-Boot Logic.

🌐

Bus Bridge and I/O Expansion

The 5M570ZM100C4N is well suited as a glue-logic bus bridge between microcontrollers, SoCs, and legacy peripherals. With 440 macro cells and a 9.0 ns pin-to-pin delay, it can multiplex 8/16-bit parallel buses, generate chip-select decode logic, and convert between 3.3 V LVCMOS and 1.8 V LVCMOS domains without adding latency. The non-volatile flash configuration boots in microseconds, so the bus bridge is live before the main SoC completes its bootloader - critical in systems where peripherals must respond before the application processor boots.

推荐

STM32F407VG (Host MCU requiring bus-bridging) 5M160ZM100C4N · Intel EPCQ16ASI8N · Altera

⚡

Power-Up Sequencing Controller

The 5M570ZM100C4N's instant-on flash-based configuration makes it ideal for multi-rail power-sequencing in SoC subsystems. The device can drive 3.3 V GPIO outputs within microseconds of VCCINT reaching 1.8 V, sequencing core, I/O, and analog rails in a defined order before the main processor boots. The 440 macro cells easily handle 8-12 sequenced rails with enable, power-good, and fault-feedback logic. Deterministic 9.0 ns pin-to-pin delay ensures the sequence timing matches the SoC vendor's POR specification exactly.

推荐

TPS65910 (Multi-rail PMIC companion) 5M240ZM100C4N · Intel

📺

Display Interface Bridging

Display interfaces such as DPI/DBI-to-LVDS, RGB-to-MIPI level shifting, and HDMI repeater logic fit naturally in the 5M570ZM100C4N. The 184.1 MHz fMAX handles pixel clocks up to 1080p60 (148.5 MHz), while the multi-voltage I/O banks accept 1.8 V, 2.5 V, and 3.3 V CMOS from the SoC side and drive the appropriate display standard on the panel side. The 100-MBGA package exposes enough I/O for full 24-bit RGB plus control signals, and the non-volatile boot ensures the bridge is operational as soon as power is applied - no waiting for software initialization.

推荐

ADV7511 (HDMI transmitter companion) SN65LVDS84 (LVDS transmitter companion) 5M1270ZF256C5N · Altera

🏭

Industrial Control Glue Logic

In factory-automation controllers, the 5M570ZM100C4N replaces discrete 74-series TTL for encoder counting, PWM generation, watchdog supervision, and fieldbus (Modbus, Profibus) address decoding. Its deterministic timing (9.0 ns tPD) ensures PWM edge accuracy for motor-control loops, and the 1.8 V core with 3.3 V I/O tolerance connects directly to 3.3 V microcontrollers without level shifters. The non-volatile flash makes it immune to configuration corruption in high-vibration industrial environments - a common failure mode for SRAM-based FPGAs.

推荐

STM32F407VG (Industrial MCU host) 5M570ZM100I5N · Intel

🔧

Legacy Board Revision Glue Logic

When revising an older PCB to replace EOL 74-series or GAL22V10-style logic, the 5M570ZM100C4N consolidates dozens of discrete gates into one part while preserving the original board's pin connections. Quartus Prime allows the original schematic-based logic to be recompiled into the MAX V architecture with deterministic timing, often eliminating the need to re-spin the PCB. The 100-MBGA footprint is small enough to fit into legacy through-hole 74LS board space with a minor re-layout, and the non-volatile flash boots with the same logic on every power cycle.

推荐

5M240ZM100C4N · Intel

💊

Safety-Critical Path Pre-Boot Logic

In automotive and industrial safety subsystems (ISO 26262, IEC 61508), the 5M570ZM100C4N can implement pre-boot safety logic that must be live before the main MCU/SoC executes any code. Examples include external watchdog strobing, voltage-rail brown-out detection, and fail-safe output clamping. Because the MAX V configuration is non-volatile and boots in microseconds, these safety functions are operational as soon as power is applied - without depending on the main SoC's firmware integrity. The deterministic 9.0 ns tPD allows the safety path to react within 1-2 clock cycles of any fault event.

推荐

5M570ZM100I5N · Intel TPS3700 (Voltage supervisor companion)

推荐产品汇总

STM32F407VG Host MCU requiring bus-bridging 用于： Bus Bridge and I/O Expansion, Industrial Control Glue Logic 5M160ZM100C4N Intel 用于： Bus Bridge and I/O Expansion EPCQ16ASI8N Altera 用于： Bus Bridge and I/O Expansion TPS65910 Multi-rail PMIC companion 用于： Power-Up Sequencing Controller 5M240ZM100C4N Intel 用于： Power-Up Sequencing Controller, Legacy Board Revision Glue Logic ADV7511 HDMI transmitter companion 用于： Display Interface Bridging SN65LVDS84 LVDS transmitter companion 用于： Display Interface Bridging 5M1270ZF256C5N Altera 用于： Display Interface Bridging 5M570ZM100I5N Intel 用于： Industrial Control Glue Logic, Safety-Critical Path Pre-Boot Logic TPS3700 Voltage supervisor companion 用于： Safety-Critical Path Pre-Boot Logic

What is the operating voltage of the 5M570ZM100C4N?

The 5M570ZM100C4N operates from a 1.8 V core supply with multi-voltage I/O banks supporting 1.5 V, 1.8 V, 2.5 V, 3.3 V LVCMOS, LVTTL, and 3.3 V PCI. According to the Altera MAX V Device Handbook, the device requires a clean 1.8 V rail for the core logic while the I/O banks can be driven independently, enabling direct interfacing between 3.3 V microcontrollers and 1.8 V SoCs on the same board.

How many logic elements does the 5M570ZM100C4N have?

The 5M570ZM100C4N contains 440 macro cells, which is the standard logic-element count for the 5M570Z device in the MAX V family. According to Altera's MAX V datasheet, each macro cell implements a 4-input look-up table, a programmable register, and product-term logic, giving roughly 440 4-input LUT equivalents - enough for typical bus-bridging, power-sequencing, and glue-logic designs.

Where can I buy the 5M570ZM100C4N online?

The 5M570ZM100C4N is currently stocked at LCSC (LCSC Electronics, from $3.41), Heisener (in stock, $13.25 unit), and at limited quantity through DigiKey and Mouser as a catalog-order part. Per the latest distributor listings, lead time for open-market orders is approximately 1-2 weeks from LCSC and 3-5 weeks from authorized distributors, as of 2026-09-06.

What is the price of the 5M570ZM100C4N?

The 5M570ZM100C4N lists at approximately $13.25 per unit at qty-1 from Heisener and from $3.41 at LCSC as of 2026-09-06. Volume pricing falls to roughly $10.96 at 100 pieces, $9.82 at 500 pieces, and $8.74 at 1,000 pieces from authorized channels. The wide price spread reflects open-market versus authorized-stock distribution - engineers should verify the part is factory-tray-packaged and RoHS compliant before volume sourcing.

What is the lead time for the 5M570ZM100C4N?

Lead time for the 5M570ZM100C4N is approximately 3-5 business days from LCSC stock (4,469 pieces in inventory) and 3-5 weeks from authorized distributors like DigiKey and Mouser as of 2026-09-06. Heisener lists "to be confirmed" lead times with estimated delivery between Sep 2 and Sep 7. For production-volume orders, contacting an Altera/Intel authorized franchise distributor is recommended for guaranteed supply.

Is the 5M570ZM100C4N in stock at distributors?

Yes, the 5M570ZM100C4N is currently in stock at LCSC (4,469 pieces) and Heisener (7,008 pieces) as of 2026-09-06, with limited authorized-channel stock at DigiKey and Mouser. The MAX V family is in active production as a legacy but supported line from Intel (formerly Altera), and the 100-MBGA package variant 5M570ZM100C4N continues to ship in tray packaging with standard lead-free solder balls.

What is the difference between 5M570ZM100C4N and 5M570ZM100A5N?

The 5M570ZM100C4N is a commercial-temperature, speed-grade-4 variant (faster tPD of approximately 9.0 ns), while the 5M570ZM100A5N is a speed-grade-5 variant (slower tPD of approximately 10.0 ns) of the same 440 macro cell 100-MBGA MAX V device. Both share the same MBGA-100 footprint, JTAG interface, and 1.8 V core, making them pin-compatible drop-ins - choose C4N when the additional speed matters for timing closure, A5N when cost or relaxed timing is acceptable.

5M570ZM100C4N vs 5M570ZM100C5N - which is better for glue logic?

For deterministic glue-logic applications, the 5M570ZM100C4N is preferred over the 5M570ZM100C5N because it offers a faster tPD of approximately 9.0 ns versus the C5N's approximately 10.0 ns. Both parts share the same 100-MBGA package, 440 macro cells, and 1.8 V core, so the choice is purely about timing margin. Per the MAX V datasheet, the C4 speed grade typically allows fMAX of 184.1 MHz, while the C5 grade trades a small speed reduction for a lower unit price.

When should I choose the 5M570ZM100C4N over a small FPGA?

Choose the 5M570ZM100C4N over a small FPGA when you need deterministic pin-to-pin delay below 10 ns, instant-on behavior from non-volatile flash, or very low standby power. MAX V CPLDs configure in microseconds from internal flash, whereas SRAM FPGAs typically require 10-100 ms external configuration and an external boot PROM. According to the MAX V handbook, MAX V standby current is in the milliamp range - 10x to 100x lower than comparable SRAM FPGAs - making it ideal for always-on industrial and IoT edge nodes.

What is the best drop-in replacement for the 5M570ZM100C4N?

The best drop-in replacement for the 5M570ZM100C4N in the same 100-MBGA package is the 5M570ZM100C5N, which shares identical 440 macro cells, 1.8 V core, and MBGA-100 footprint but operates at a slightly slower speed grade. For temperature-extended applications, the 5M570ZM100I5N (industrial temp range, -40 C to +100 C) is a pin-compatible upgrade. The 5M570ZM100A5N is another same-footprint variant with relaxed speed grade for cost-sensitive designs.

Can a Xilinx XC9500XL CPLD replace the 5M570ZM100C4N?

No - a true drop-in cross-brand replacement for the 5M570ZM100C4N does not exist because the MAX V 100-MBGA pinout is unique to Altera/Intel. Xilinx XC9500XL and CoolRunner-II CPLDs have entirely different BGA pin maps, JTAG pin ordering, and power-pin assignments. Migration from MAX V to a Xilinx CPLD requires PCB re-layout and a Quartus-to-ISE/Vivado design rework, which is not a drop-in substitution. Engineers should verify cross-brand options carefully with the FPGA Alternatives guide from Ampheo before considering a board redesign.

Where can I download the 5M570ZM100C4N datasheet PDF?

The 5M570ZM100C4N datasheet PDF is available from Altera/Intel's MAX V Device Handbook, hosted at https://www.altera.com/literature/hb/max-v/mv51006.pdf. The handbook contains the full datasheet section for all MAX V density points, including the 5M570Z variant with 440 macro cells in the 100-MBGA package. For pinout-only information, the MAX V pinout tables are also included as a separate appendix in the same handbook bundle.

Where is the pinout for the 5M570ZM100C4N MBGA-100 package?

The complete pinout for the 5M570ZM100C4N 100-MBGA package is in the MAX V Device Handbook, Chapter 7 (Pin-Out Information) at https://www.altera.com/literature/hb/max-v/mv51006.pdf. The MBGA-100 package uses a 10 x 10 ball grid array with the 1.8 V core VCCINT and GND balls distributed across the array; JTAG pins TCK, TMS, TDI, TDO are assigned to fixed balls documented in the datasheet's M100 pin-out table.

What is the maximum toggle frequency of the 5M570ZM100C4N?

The 5M570ZM100C4N supports a maximum internal frequency of 184.1 MHz, with a pin-to-pin logic delay of 9.0 ns. According to the MAX V datasheet AC characteristics section, this is sufficient for memory-controller glue logic, high-speed bus multiplexing (SDR SDRAM, parallel SRAM, and async SRAM/flash interfaces), and consumer interface bridges like RGB-to-LVDS. Designers should still simulate their critical paths with Quartus Prime TimeQuest timing analysis to confirm closure at the 184.1 MHz fMAX.

Is the 5M570ZM100C4N RoHS compliant?

Yes, the 5M570ZM100C4N is RoHS compliant and is supplied in lead-free MBGA-100 packaging with lead-free solder balls, per Altera/Intel's MAX V product page compliance documentation. The device is also REACH compliant and uses conflict-mineral-compliant tantalum, tin, tungsten, and gold sourcing. According to the LCSC and Arrow product listings, the part ships in tray packaging with MSL3 moisture-sensitivity level and is rated for 245 C peak-reflow lead-free soldering profiles.

工程参考数据： 5M570ZM100C4N ——对比、设计指导和合规信息。

选型指南

Choose the 5M570ZM100C4N when your design needs 200-440 macro cells of glue logic, deterministic 9.0 ns pin-to-pin delay, and instant-on non-volatile boot in a 100-MBGA footprint. It is the right part for high-density bus bridges, display interface converters, and power-sequencing controllers. Choose the 5M570ZM100C5N if 10.0 ns tPD is acceptable - you save cost. Choose the 5M570ZM100I5N for industrial temperature -40 C to +100 C operation. Downsize to the 5M240ZM100C4N (240 macro cells, MAX II) or 5M160ZM100C4N (160 macro cells, MAX II) if your logic fits and you want lower unit cost. Choose a small SRAM FPGA only if you need >10K logic elements or hard DSP/memory blocks - otherwise MAX V's instant-on and low standby power are decisive advantages.

与替代料对比

参数	本产品	5M570ZM100C5N	5M570ZM100A5N	5M570ZM100I5N	5M240ZM100C4N	5M160ZM100C4N
Package	100-MBGA (M100)	100-MBGA - same	100-MBGA - same	100-MBGA - same	100-MBGA - same	100-MBGA - same
Brand	Altera (Intel)	Altera (Intel)	Altera (Intel)	Altera (Intel)	Altera (Intel)	Altera (Intel)
Family	MAX V	MAX V	MAX V	MAX V	MAX II	MAX II
Macro Cells	440	440	440	440	240	160
Pin-to-Pin Delay (tPD)	9.0 ns	10.0 ns	10.0 ns	10.0 ns	10.0 ns (MAX II)	10.0 ns (MAX II)
Max Internal Frequency	184.1 MHz	152.5 MHz	118.3 MHz	152.5 MHz	118.3 MHz	118.3 MHz
Operating Temperature	0 C to +85 C (commercial)	0 C to +85 C (commercial)	0 C to +85 C (commercial)	-40 C to +100 C (industrial)	0 C to +85 C (commercial)	0 C to +85 C (commercial)
Core Voltage	1.8 V	1.8 V	1.8 V	1.8 V	1.8 V	1.8 V
Configuration Memory	Flash (non-volatile)	Flash (non-volatile)	Flash (non-volatile)	Flash (non-volatile)	Flash (non-volatile)	Flash (non-volatile)

关键差异点

Highest-density 100-MBGA option in the MAX V family （对比 5M240ZM100C4N (MAX II 240 macro cells))
Faster C4 speed grade vs C5 and A5 （对比 5M570ZM100C5N (C5 speed grade))
Non-volatile flash configuration, instant-on （对比 Small SRAM FPGAs (Cyclone IV, Lattice ECP5))

设计说明

The 5M570ZM100C4N requires a clean 1.8 V VCCINT supply with separate 1.5 V / 1.8 V / 2.5 V / 3.3 V VCCIO rails for each bank. Place a 0.1 uF X7R ceramic decoupling capacitor within 3 mm of each VCCINT and VCCIO ball, with a 10 uF bulk tantalum or ceramic on each supply domain. Estimated: total inrush during flash configuration is approximately 100-200 mA peak; budget the 1.8 V regulator for at least 300 mA continuous load capability for reliable JTAG programming.

The 100-MBGA package uses a 0.8 mm ball pitch (verify exact pitch in the MAX V Device Handbook). Use a 4-layer PCB with a solid ground plane beneath the device; route all MBGA signals on the top layer with microvias-in-pad for the inner balls. Place JTAG pins TCK/TMS/TDI/TDO on accessible test points or a 0.1 inch header to support in-system programming during board bring-up. Estimated: with 0.8 mm pitch, the breakout requires 4 mil traces with 4 mil spacing under the BGA - confirm PCB fab capability before tape-out.

The 100-MBGA package has a typical theta-JA of approximately 35-40 C/W in still air (estimated; consult the MAX V thermal model for the exact value). At 184.1 MHz fMAX with all 440 macro cells switching at full toggle rate, the device may dissipate 0.5-1.0 W internal power. For commercial applications in enclosed housings, provide thermal vias beneath the center GND balls and ensure at least 100 LFM airflow if continuous operation near max density is expected. Industrial variants (5M570ZM100I5N) require derating above +85 C ambient.

Do not assume MAX V pinout is compatible with MAX II or MAX 10 devices - even though they share the MAX family naming, pin assignments for the same package code (M100) differ between families. Always regenerate the Quartus Prime pinout and recompile the design when migrating. Also, do not leave JTAG pins floating - TCK must be pulled low, TMS and TDI pulled high through 10 kohm resistors to prevent spurious JTAG state transitions during power-up.

合规信息

RoHS

Compliant

REACH

Compliant

AEC-Q100

Not Qualified

无铅

Yes

无卤

Unknown

冲突矿物

Compliant

RoHS compliant per Altera/Intel MAX V product page. Commercial temperature grade only (0 C to +85 C); industrial-grade variant is 5M570ZM100I5N. Not AEC-Q100 qualified; consult Intel/Altera automotive CPLD lines for AEC-Q100 options.

数据核验日期： 2026-09-06 ——数据由 XAIPART 元器件工程团队核验和整理

来源： Manufacturer Datasheet, Distributor, Distributor, Distributor, Distributor, Internal Db