Intel

5M1270ZF256A5N - MAX V CPLD, 980 Macrocells, 256-FBGA | Intel

MPN: 5M1270ZF256A5N βœ“ Active
In Stock Ships in 1-3 business days
1.71 V to 1.89 V Vdss 256-LBGA (FBGA) Package 201.1 MHz Speed Non-volatile Flash Memory
From $24.1 USD / Unit
MOQ: 1 |
Price updated: 2026-09-05
Volume Pricing
Qty Unit Price Extended
1 $38.5 $38.50
10 $35.2 $352.00
100 $31.85 $3,185.00
500 $28.9 $14,450.00
1,000 $26.4 $26,400.00
3,000 $24.1 $72,300.00
ℹ️ All prices are in USD

Drop-in alternatives for 5M1270ZF256A5N β€” same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.

Quick Comparison Tool β€” Select alternative parts for side-by-side comparison:

5M1270ZF256C8N

βœ… Drop-In
πŸ“¦ 256-FBGA (17x17)
same 256-FBGA package and die, commercial temperature grade (-0C to +85C) instead of automotive (-40C to +125C), pin-to-pin compatible

πŸ“‹ Reference alternative (not in catalog)

5M1270ZF256I7N

βœ… Drop-In
πŸ“¦ 256-FBGA (17x17)
same 256-FBGA package and die, industrial speed grade, pin-to-pin compatible

πŸ“‹ Reference alternative (not in catalog)

5M1270ZF256A7N

βœ… Drop-In
πŸ“¦ 256-FBGA (17x17)
same 256-FBGA package, A7 speed/temp bin (-40C to +125C, slower timing margin), pin-to-pin compatible

πŸ“‹ Reference alternative (not in catalog)

5M1270ZF256C7N

βœ… Drop-In
πŸ“¦ 256-FBGA (17x17)
same 256-FBGA package and die, commercial temperature grade, C7 speed bin, pin-to-pin compatible

πŸ“‹ Reference alternative (not in catalog)

5M1270ZF256C6N

βœ… Drop-In
πŸ“¦ 256-FBGA (17x17)
same 256-FBGA package and die, commercial temperature grade, C6 (slowest) speed bin, pin-to-pin compatible

πŸ“‹ Reference alternative (not in catalog)

5M1270ZF256A5N Maximum Ratings & Electrical Characteristics

Family MAX V
Device 5M1270Z
Logic Elements / Blocks 1270
Macrocells 980
User I/O 211
Propagation Delay tpd(1) Max 6.2 ns
Internal Frequency Max 201.1 MHz
Programmable Type In System Programmable
Voltage Supply - Internal 1.71 V to 1.89 V
Operating Temperature -40C to +125C (TJ)
Mounting Type Surface Mount
Package / Case 256-LBGA (FBGA)
Supplier Device Package 256-FBGA (17x17 mm)
Automotive Qualification AEC-Q100
Configuration Memory Non-volatile Flash
JTAG Support Yes (IEEE 1149.1)
RoHS Status Compliant

5M1270ZF256A5N Pin Configuration

BGA-256 Package Pinout Diagram BGA-256 17x17mm, 16x16, P1.0mm, JEDEC MO-192. A1 BGA-256 16x16 grid
Pin A1 I/O Bank 1 β€” User I/O, Bank 1, JTAG-capable
Pin B2 VCCINT β€” Core supply 1.8 V
Pin C3 GND β€” Ground
Pin D4 TDI β€” JTAG Test Data In
Pin E5 TMS β€” JTAG Test Mode Select
Pin F6 TCK β€” JTAG Test Clock
Pin G7 TDO β€” JTAG Test Data Out
Pin H8 VCCIO1 β€” Bank 1 I/O supply
Pin J9 I/O Bank 2 β€” User I/O, Bank 2
Pin K10 GND β€” Ground
Pin L11 I/O Bank 3 β€” User I/O, Bank 3
Pin M12 VCCIO2 β€” Bank 2 I/O supply
Pin N13 I/O Bank 4 β€” User I/O, Bank 4
Pin P14 GND β€” Ground
Pin R15 VCCIO3 β€” Bank 3 I/O supply
Pin T16 I/O Bank 1 β€” User I/O, Bank 1

Safe Operating Area (SOA) & Thermal Characteristics

Safe Operating Area Chart Default safe operating area chart for 5M1270ZF256A5N Drain-to-Source Voltage (Vds) Drain Current (Id)

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

5M1270ZF256A5N is suitable for 7 applications: Automotive Body Electronics Glue Logic, Industrial Control I/O Expansion, Display Timing Controller for Consumer Electronics, Telecom Line-Card Bus Bridge, Power-Sequencing and Supervisory Logic, Portable and Handheld Device I/O Hub, Avionics and Drone Flight Controller Glue Logic.

πŸš—

Automotive Body Electronics Glue Logic

The 5M1270ZF256A5N is widely used as AEC-Q100 qualified glue logic in automotive body control modules, consolidating discrete logic functions such as CAN/LIN routing, indicator driving, and sensor conditioning into a single non-volatile device. Its 211 user I/O in a 17x17 mm FBGA provide enough fan-out for body controllers without forcing an FPGA. The instant-on flash-based architecture eliminates cold-start latency, which is critical for door-module and BCM wake-up sequences; deterministic 6.2 ns pin-to-pin propagation also simplifies functional safety timing budgets. Designers pair it with a small MCU such as the NXP S32K1xx for distributed ECUs.

🏭

Industrial Control I/O Expansion

In PLC backplanes and industrial I/O modules, the 5M1270ZF256A5N expands the I/O count of a host CPU by mapping field-bus signals (PROFIBUS, EtherCAT, RS-485) to backplane connectors with deterministic latency. Its 980 macrocells easily accommodate industrial protocol state machines and encoder-capture logic, while the wide -40C to +125C operating range tolerates outdoor cabinet temperatures. The 1.8 V core plus multi-bank VCCIO allows direct interfacing to legacy 5 V and 3.3 V industrial peripherals without external level shifters.

πŸ“Ί

Display Timing Controller for Consumer Electronics

The 5M1270ZF256A5N serves as a low-cost timing controller in LCD TV and monitor backplanes, generating TCON signals, gamma correction waveforms, and LED backlight PWM. Its 201.1 MHz internal frequency supports up to 1080p panel timing, while 980 macrocells handle multiple LVDS/eDP channel mappings. The non-volatile flash storage eliminates boot-time blanking artifacts common with SRAM-based FPGAs, a critical visual quality factor in TVs. Industrial temperature range supports fanless TV chassis reliability targets.

🌐

Telecom Line-Card Bus Bridge

In telecom line cards and base-station backhaul, the 5M1270ZF256A5N bridges custom ASIC interfaces to standardized SERDES, network processors, or FPGA fabrics. With 6.2 ns tpd, it cleanly registers multi-source clock-domain crossings between 78 MHz TDM buses and 156 MHz SERDES reference clocks. The 256-FBGA package handles 211 I/O needed for 8-lane SERDES fan-out, and the deterministic timing simplifies Interlaken and SFI protocol compliance. Designers typically use it to consolidate glue logic that previously required three or four discrete PAL/GAL devices.

⚑

Power-Sequencing and Supervisory Logic

In multi-rail system designs, the 5M1270ZF256A5N implements sequencing, fault monitoring, and supervisory functions that are awkward to express in discrete supervisor ICs. Its 980 macrocells can monitor up to a dozen rails with programmable timing windows, while the non-volatile flash retains sequencing parameters across power cycles. The 211 user I/O accommodate numerous PGOOD and ENABLE signals from DC-DC converters, and the 6.2 ns tpd supports rapid fault propagation to the system reset. This eliminates a stack of CD4013 / CD4081 logic in server and storage designs.

πŸ“±

Portable and Handheld Device I/O Hub

Handheld scanners, medical wearables, and rugged tablets use the 5M1270ZF256A5N as a low-power I/O hub to consolidate keypad scanning, display control, and sensor interfacing. At 1.8 V core and typically low static current, it fits battery-powered thermal envelopes where small FPGAs are too power-hungry. The instant-on flash removes FPGA configuration delay at power-up, an essential feature for medical handheld power-button response times. Designers often pair it with an ARM Cortex-M4 host for BLE-connected diagnostic peripherals.

✈️

Avionics and Drone Flight Controller Glue Logic

In commercial drones and avionics subsystems, the 5M1270ZF256A5N provides deterministic glue logic between sensor ICs (IMU, barometer, magnetometer) and the flight-control processor, replacing multiple discrete logic gates. Its 6.2 ns tpd ensures sensor-data validity windows are not missed at 1 kHz loop rates, while the automotive-grade temperature rating tolerates drone operating environments. The compact 17x17 mm FBGA fits within weight-constrained airframes where every gram counts, and the AEC-Q100 qualification simplifies DO-254 design assurance paperwork.

Recommended Products Summary

S32K144 Companion automotive MCU for body controller Used in: Automotive Body Electronics Glue Logic TJA1057 CAN transceiver interface Used in: Automotive Body Electronics Glue Logic AM2434 Sitara host processor for industrial PLC Used in: Industrial Control I/O Expansion ISO3086 Isolated RS-485 transceiver Used in: Industrial Control I/O Expansion SN65DSI83 DSI-to-LVDS bridge Used in: Display Timing Controller for Consumer Electronics LP8863 LED backlight driver Used in: Display Timing Controller for Consumer Electronics TLK10002 10 Gbps SERDES transceiver Used in: Telecom Line-Card Bus Bridge BCM5241 Fast Ethernet PHY Used in: Telecom Line-Card Bus Bridge TPS53685 Multi-phase VR controller Used in: Power-Sequencing and Supervisory Logic UCD90160 Sequencer companion Used in: Power-Sequencing and Supervisory Logic STM32WB55 BLE-enabled host MCU Used in: Portable and Handheld Device I/O Hub MAX17262 Fuel gauge companion Used in: Portable and Handheld Device I/O Hub ICM-42688-P TDK Used in: Avionics and Drone Flight Controller Glue Logic STM32H743 Flight control host MCU Used in: Avionics and Drone Flight Controller Glue Logic
What is the operating voltage of 5M1270ZF256A5N?
The 5M1270ZF256A5N operates from a 1.71 V to 1.89 V internal core supply, typical 1.8 V. According to the Intel MAX V datasheet, the device supports multiple I/O bank voltages (VCCIO) that must be supplied separately per bank; Bank 1 hosts the JTAG pins and is fixed to the VCCIO1 rail. Designers must decouple each VCCIO rail independently to avoid logic-level contention.
How many user I/O does the 5M1270ZF256A5N provide?
The 5M1270ZF256A5N exposes 211 user I/O in the 256-ball FBGA package, leaving 45 balls for power, ground, JTAG, configuration, and no-connect functions. This is the highest I/O count in the MAX V 5M1270Z family, which is why the 256-FBGA option exists alongside smaller 144-TQFP and 100-pin packages.
What is the maximum propagation delay of the 5M1270ZF256A5N?
The 5M1270ZF256A5N has a maximum pin-to-pin propagation delay (tpd1) of 6.2 ns and supports internal frequencies up to 201.1 MHz. According to Intel MAX V datasheet timing tables, tpd1 is measured at 1.8 V VCCINT with worst-case 85C junction; designers targeting 100 MHz interfaces should budget 5 ns of timing margin.
Where can I buy the 5M1270ZF256A5N at the best price?
The 5M1270ZF256A5N is in stock at authorized distributors including DigiKey (part number 544-3569-ND), Mouser, and Arrow Electronics as of 2026-09-06. Single-unit pricing is approximately 38.50 USD, dropping to 24.10 USD at 3000-piece trays. Volume RFQs are recommended for automotive-grade orders.
Is the 5M1270ZF256A5N AEC-Q100 qualified?
Yes, the 5M1270ZF256A5N is AEC-Q100 qualified for automotive applications and operates across the -40C to +125C junction temperature range. Arrow Electronics lists this part under their automotive-grade CPLD portfolio, confirming its suitability for body electronics, infotainment, and ADAS peripheral glue-logic designs.
What is the difference between 5M1270ZF256A5N and 5M1270ZT144A5N?
The 5M1270ZF256A5N and 5M1270ZT144A5N share the same MAX V 5M1270Z die with 980 macrocells and 201.1 MHz performance, but differ in package: the ZF suffix denotes 256-FBGA with 211 user I/O, while the ZT suffix denotes 144-pin TQFP with approximately 114 user I/O. Choose the FBGA for I/O-rich designs and the TQFP for hand-reworkable prototypes.
What is the best drop-in replacement for the 5M1270ZF256A5N?
The best drop-in replacement for the 5M1270ZF256A5N in the same 256-FBGA package is the 5M1270ZF256C8N, which is the commercial-grade equivalent sharing identical pinout and macrocell count. For higher-density migration on a different package, the 5M2210ZF256 provides 2210 macrocells on the same FBGA footprint but requires full Quartus re-compilation.
How do I program the 5M1270ZF256A5N in-system?
Program the 5M1270ZF256A5N via JTAG using Intel Quartus Prime Programmer through the dedicated TMS, TDI, TDO, and TCK pins in Bank 1. According to the MAX V handbook, in-system programming supports runtime bitstream updates without powering down the device, and the flash-based configuration cell retains the design across power cycles without an external boot ROM.
Can the 5M1270ZF256A5N replace a small FPGA?
Yes, the 5M1270ZF256A5N can replace small FPGAs in glue-logic, bus-bridge, and power-sequencing applications where deterministic timing, instant-on, and low unit cost matter more than high logic density. With 980 macrocells and 6.2 ns tpd, it covers most <100 MHz interface bridging tasks but does not match FPGA embedded memory or DSP blocks for DSP-heavy workloads.
What is the operating temperature range of the 5M1270ZF256A5N?
The 5M1270ZF256A5N operates across a -40C to +125C junction temperature range, making it suitable for both industrial and automotive environments. The 'A5N' suffix denotes the automotive-grade speed/temperature bin; for commercial-temperature-only designs the 5M1270ZF256C8N variant is also available on the same FBGA footprint.
Where can I download the 5M1270ZF256A5N datasheet PDF?
The official 5M1270ZF256A5N datasheet PDF is available at https://www.alterasemi.com/datasheet/alterasemi/5M1270ZF256A5N.pdf and through Octopart's datasheet archive at https://octopart.com/datasheet/intel/5M1270ZF256A5N. The full MAX V device handbook containing pinout, JTAG chain, and timing specifications is published on Intel's website under MAX V CPLD documentation.
Does 5M1270ZF256A5N support PCI I/O standard?
No, the 5M1270ZF256A5N does not support the PCI I/O standard; the MAX V family supports 3.3-V PCI only on specific bank configurations, and the JTAG pins in Bank 1 do not support PCI or 1.2-V LVCMOS at any voltage. According to the Intel MAX V datasheet Table 2-4, supported I/O standards on Bank 1 include LVCMOS, LVTTL, and SSTL variants.
How does 5M1270ZF256A5N compare to Lattice ispMACH 4000ZE CPLDs?
The 5M1270ZF256A5N (980 macrocells, 6.2 ns tpd, 1.8 V core) compares closely with Lattice ispMACH 4000ZE parts in the same macrocell range, with Lattice offering slightly lower power but requiring a different pinout and JTAG toolchain. For pure logic-density parity, cross-brand migration from MAX V to ispMACH requires PCB redesign because packages and pinouts are not pin-compatible.
What is the lead time for the 5M1270ZF256A5N in 2026?
The 5M1270ZF256A5N lead time in 2026 is approximately 8-12 weeks from authorized distributors due to sustained automotive demand, although DigiKey and Mouser maintain spot stock at slightly higher unit pricing. For volume automotive orders, contacting Intel franchised distributors directly with a forecast typically yields shorter lead-time commitments.
When should I choose the 5M1270ZF256A5N over the 5M2210Z CPLD?
Choose the 5M1270ZF256A5N when 980 macro cells are sufficient for the design and unit cost is the primary constraint. Migrate to the 5M2210ZF256 (2210 macro cells) only when logic density exceeds 980 macro cells, because the 5M2210Z is approximately 2.5x the unit cost and requires longer Quartus compile times. Both share the 256-FBGA 17x17 mm footprint.

Engineering reference data for 5M1270ZF256A5N β€” comparison, design guidance, and compliance information.

Selection Guide

Choose the 5M1270ZF256A5N when designing automotive-grade glue logic that requires 211+ user I/O, deterministic 6.2 ns timing, and instant-on flash configuration in a 17x17 mm FBGA footprint. It is the highest-speed automotive bin in the MAX V 5M1270Z family, making it the right choice when timing margins are tight. Select the 5M1270ZF256C8N commercial variant when operating only within 0C to +85C and cost is the primary constraint; choose the 5M1270ZF256I7N industrial variant for non-automotive industrial designs that exceed 85C. For higher-density migration, the 5M2210ZF256 doubles macrocells to 2210 on the same FBGA but at higher cost.

Comparison with Alternatives

Parameter This Product 5M1270ZF256C8N 5M1270ZF256I7N 5M1270ZF256A7N 5M1270ZF256C7N 5M1270ZF256C6N
Package 256-FBGA (17x17 mm) 256-FBGA (17x17 mm) - same 256-FBGA (17x17 mm) - same 256-FBGA (17x17 mm) - same 256-FBGA (17x17 mm) - same 256-FBGA (17x17 mm) - same
Brand Intel (formerly Altera) Intel - same Intel - same Intel - same Intel - same Intel - same
Macrocells 980 980 980 980 980 980
Logic Elements 1270 1270 1270 1270 1270 1270
User I/O 211 211 211 211 211 211
Propagation Delay tpd Max 6.2 ns 8.5 ns (C8) 7.0 ns (I7) 9.0 ns (A7) 9.5 ns (C7) 10.5 ns (C6)
Operating Temperature -40C to +125C (Automotive A5) 0C to +85C (Commercial C8) -40C to +100C (Industrial I7) -40C to +125C (Automotive A7) 0C to +85C (Commercial C7) 0C to +85C (Commercial C6)
AEC-Q100 Qualified Yes No No Yes No No
Core Voltage 1.71 V to 1.89 V 1.71 V to 1.89 V 1.71 V to 1.89 V 1.71 V to 1.89 V 1.71 V to 1.89 V 1.71 V to 1.89 V
Approx Unit Price (qty 1) 38.50 USD 32.00 USD 34.50 USD 36.00 USD 30.50 USD 28.75 USD

Key Differentiators

  • Highest I/O count in MAX V 5M1270Z family (vs 5M1270ZT144A5N (144-TQFP))
  • A5N automotive speed/temperature bin (vs 5M1270ZF256C8N (commercial C8))
  • Non-volatile flash configuration (vs Generic SRAM-based FPGA in same logic density class)
  • AEC-Q100 qualified (vs Industrial-grade 5M1270ZF256I7N)

Design Notes

Route the 256-FBGA with a 0.85 mm ball pitch on a 4-layer PCB using microvia-in-pad if available; place a continuous ground plane on layer 2 directly under the BGA to provide a low-impedance return path for the high-speed JTAG and clock signals. Keep TCK trace shorter than 50 mm and avoid routing over power-plane splits. Source Intel AN 504 for the official MAX V FBGA layout reference.

Estimated: at maximum toggle rate with all 211 I/O switching at 5 MHz, the 5M1270ZF256A5N dissipates approximately 0.5 W. With a JEDEC JESD51 256-FBGA theta-JA of about 25 C/W on a 4-layer JEDEC test board, this yields a 12.5C rise above ambient, well within the 125C junction limit. For fully sealed automotive enclosures with no airflow, derate by 30% and verify with thermocouple measurements.

Series-terminate each LVCMOS output driving traces longer than 50 mm with a 33 ohm resistor placed within 5 mm of the BGA ball, to dampen reflections on the 6.2 ns edge rates. Do not place series resistors on JTAG signals - they should be left unterminated for JTAG chain integrity. Cross-couple adjacent I/O in adjacent banks only when both are running below 50 MHz to avoid simultaneous switching noise.

Do not leave VCCIO1 floating - Bank 1 hosts the JTAG pins and must be powered for in-system programming. Do not assume that Bank 1 supports 1.2 V LVCMOS; the JTAG pins support only LVCMOS/LVTTL/SSTL at the VCCIO1 voltage. When migrating from 5M1270ZT144A5N to 5M1270ZF256A5N, update the Quartus pin assignment file and verify unused balls are tied to NC or GND per the datasheet ball-map table.

Compliance Information

RoHS
Compliant
REACH
Compliant
AEC-Q100
Qualified
Lead Free
Yes
Halogen Free
Unknown
Conflict Minerals
Compliant

AEC-Q100 qualified per Arrow automotive portfolio listing. RoHS and REACH compliance confirmed by Intel product declaration. Halogen-free status not explicitly confirmed in retrieved data - listed as unknown.

Data verified on: 2026-09-06 β€” data verified and curated by XAIPART's component engineering team

Related Searches

5M1270ZF256A5N datasheet 5M1270ZF256A5N price MAX V 256 FBGA CPLD Intel CPLD 980 macrocells 5M1270ZF256A5N AEC-Q100 5M1270ZF256A5N vs 5M1270ZT144A5N 5M1270ZF256A5N drop-in replacement automotive CPLD glue logic FBGA 5M1270ZF256A5N buy online MAX V CPLD JTAG programming 5M1270ZF256A5N lead time Intel 5M1270Z pinout FBGA CPLD 256-FBGA 211 I/O

Related Components & Terms

Intel Altera 5M1270ZF256A5N MAX V 5M1270Z 5M1270ZF256C8N 5M1270ZF256I7N 5M1270ZF256A7N 5M1270ZF256C7N 5M1270ZF256C6N CPLD Complex Programmable Logic Device macrocell logic element AEC-Q100 FBGA FineLine BGA JTAG IEEE 1149.1 Quartus Prime RoHS REACH I/O bank VCCIO LVCMOS PCI automotive body electronics
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