Intel

10M25DAF256C7G - MAX 10 FPGA, 25K LE, 256-LBGA | Intel / Altera

MPN: 10M25DAF256C7G ✓ Active
In Stock Ships in 1-3 business days
256-LBGA (F256) Package -C7 Speed 691,200 bits (M9K blocks) Memory
From $38.75 USD / Unit
MOQ: 1 |
Price updated: 2026-09-05
Volume Pricing
Qty Unit Price Extended
1 $62.17 $62.17
10 $55.95 $559.50
100 $48.5 $4,850.00
500 $42.2 $21,100.00
1,000 $38.75 $38,750.00
ℹ️ All prices are in USD

Drop-in alternatives for 10M25DAF256C7G — same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.

Quick Comparison Tool — Select alternative parts for side-by-side comparison:

10M25DAF256I7G

✅ Drop-In
Intel
📦 256-LBGA (F256)
MAX 10 · 25,000 · 691,200 bits (1,638 Kbit) · 178 · 256-FBGA (FineLine BGA) · 55 nm · 1.2 V (with 2.5 V analog supply) · -40 °C to +100 °C (Industrial)

✓ In Stock

$60.3 / Unit

View Datasheet →

10M25DAF256C8G

✅ Drop-In
Intel
📦 256-LBGA (F256)
MAX 10 · 25,000 · 1,728 Kbits · 55 · 178 · 4 · 2 (12-bit) · Internal, non-volatile

✓ In Stock

$45.3 / Unit

View Datasheet →

10M25DAF256A7G

✅ Drop-In
📦 256-LBGA (F256)
speed grade -A7 (slower / lower-cost tier), same F256 footprint and 25K LE

📋 Reference alternative (not in catalog)

ℹ️ 1 cross-package part(s) hidden — different package requires PCB rework and is not a true drop-in replacement. Contact us if you need cross-package suggestions.

10M25DAF256C7G Maximum Ratings & Electrical Characteristics

Series MAX 10
Family MAX 10 FPGA
Logic Elements (LE) 25,000
Embedded Memory 691,200 bits (M9K blocks)
User I/Os 178
Package 256-LBGA (F256)
Speed Grade -C7
Temperature Grade Commercial (0C to +85C)
Mounting Type Surface Mount
Configuration Memory On-chip flash (non-volatile, instant-on)
Integrated ADC Yes, 12-bit (family feature)
DSP Blocks Yes (family feature)
PLLs Yes (family feature)
RoHS Status Compliant
Operating Temperature 0C to +85C

10M25DAF256C7G 256-lbga (f256) Pin Configuration Guide

Complete pinout information for 10M25DAF256C7G (256-lbga (f256) 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.

256-lbga (f256) package pinout diagram for 10M25DAF256C7G

No detailed pinout data available for 10M25DAF256C7G.

Refer to the datasheet for full pin configuration.

Safe Operating Area (SOA) & Thermal Characteristics

Safe Operating Area Chart Default safe operating area chart for 10M25DAF256C7G 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

10M25DAF256C7G is suitable for 6 applications: Industrial Machine Vision, Factory Automation Controllers, Motor Control and Drive Interfaces, Video Format Conversion and Bridging, IoT Edge Sensor Nodes, Glue Logic Consolidation.

🏭

Industrial Machine Vision

The 10M25DAF256C7G's 25K logic elements and 691 Kbit embedded SRAM make it well suited for industrial machine vision preprocessing pipelines such as image binarization, blob detection, and line-scan buffering. The 178 user I/Os in the 256-LBGA package can directly interface with parallel CMOS image sensors (e.g., 8-bit or 16-bit data buses) and Camera Link base configuration. The integrated 12-bit ADC and DSP blocks further enable on-chip histogram equalization and edge-detection kernels. Unlike a microcontroller, the parallel hardware architecture sustains full frame rates at 60+ fps without software bottlenecks, making the 10M25 a strong fit for in-line factory inspection.

🏭

Factory Automation Controllers

In factory automation, the 10M25DAF256C7G can replace multiple CPLDs or discrete logic glue by consolidating encoder interfacing, PWM generation, and fieldbus bridging in a single instant-on device. The on-chip flash configuration eliminates boot delays, enabling the controller to start within microseconds of power-up - critical for deterministic industrial Ethernet cycles. With 25K LE and 178 I/Os, the F256 LBGA can handle multi-axis stepper/servo control loops with quadrature decoder IP, while DSP blocks accelerate digital filtering on encoder feedback. The commercial 0C-85C temperature range covers most indoor control cabinets.

Motor Control and Drive Interfaces

The 10M25DAF256C7G is a strong fit for motor control interface boards that need to generate multi-channel PWM, decode quadrature encoder feedback, and execute field-oriented control (FOC) loops. The device's DSP blocks accelerate Park/Clarke transforms and PI controllers at PWM switching frequencies up to 50 kHz, while 691 Kbit embedded memory buffers current/voltage sample arrays between ADC conversions. The 178 user I/Os in the F256 LBGA expose enough pins to drive six-channel three-phase inverters plus resolver/excited encoders. MAX 10's instant-on capability supports safety-critical start-up sequencing.

📺

Video Format Conversion and Bridging

The 10M25DAF256C7G handles video format conversion such as HDMI-to-LVDS, MIPI-CSI2 to parallel RGB, or interlaced-to-progressive conversion. Its 25K LE provide enough logic to instantiate color-space converters and scalers, while 691 Kbit embedded memory acts as line buffers for frame-rate conversion without external SDRAM. The 178 user I/Os in the F256 LBGA accommodate LVDS pairs (typically 1 LVDS pair per 2 pins) for high-speed video links up to several hundred MHz. The commercial temperature grade and integrated ADC simplify consumer video products and digital signage controllers.

🧩

IoT Edge Sensor Nodes

The 10M25DAF256C7G's instant-on flash configuration makes it attractive for IoT edge nodes that wake from sleep and need to begin sampling sensors within microseconds, preserving battery life. The integrated 12-bit ADC directly digitizes analog sensor outputs (temperature, pressure, strain gauges) without an external ADC chip. With 25K LE, the device can run lightweight DSP pre-processing (FIR filters, FFT bins) on edge data before forwarding via SPI, I2C, or UART to a host MCU. The 256-LBGA F256 package exposes enough I/O to fan out to multiple sensor buses and wireless modules.

🔧

Glue Logic Consolidation

Designers traditionally use multiple 5V or 3.3V CPLDs to perform address decoding, bus arbitration, watchdog timing, and reset sequencing between microcontrollers, ASICs, and memories. The 10M25DAF256C7G consolidates those functions into a single 25K LE device, reducing PCB area and BOM cost. The 178 user I/Os in the F256 LBGA accommodate wide address/data buses, while DSP and PLL resources generate multiple clock domains needed for memory and peripheral timing. Quartus Prime IP library provides standardized bridges, FIFOs, and memory controllers that shorten glue-logic design cycles from weeks to days.

Recommended Products Summary

10M16DAF256C7G Intel Used in: Industrial Machine Vision, Motor Control and Drive Interfaces, Glue Logic Consolidation 10M50DAF256C7G Higher-density MAX 10 for multi-camera vision systems Used in: Industrial Machine Vision, Video Format Conversion and Bridging CY7C68013A Companion USB 2.0 controller for image data uplink Used in: Industrial Machine Vision 10M04DAF256C7G Intel Used in: Factory Automation Controllers, IoT Edge Sensor Nodes EPCS16SI8N Optional external flash (not needed with MAX 10 internal flash) Used in: Factory Automation Controllers MAX3485ESA Companion RS-485 transceiver for Modbus fieldbus Used in: Factory Automation Controllers ADS131M04IPWR Companion 24-bit sigma-delta ADC for current sensing Used in: Motor Control and Drive Interfaces DRV8323RS Three-phase gate driver with integrated current shunt amps Used in: Motor Control and Drive Interfaces TFP401A HDMI receiver companion for DVI/HDMI bridging Used in: Video Format Conversion and Bridging SN65LVDS84A FlatLink LVDS transmitter companion Used in: Video Format Conversion and Bridging ESP32-WROOM-32E Companion Wi-Fi/BT module for cloud uplink Used in: IoT Edge Sensor Nodes BME280 Integrated environmental sensor (T/H/P) Used in: IoT Edge Sensor Nodes 5CEFA4F23I7N Cyclone V E for higher-performance glue logic Used in: Glue Logic Consolidation MT41K128M16JT Companion DDR3L SDRAM for buffering Used in: Glue Logic Consolidation
What is the logic element count of the 10M25DAF256C7G?
The 10M25DAF256C7G contains 25,000 logic elements. According to the Intel MAX 10 device overview, MAX 10 devices scale from 10M02 (2K LE) up through 10M50 (50K LE), placing the 10M25 in the mid-density range. LE count is the primary metric for measuring FPGA logic capacity and is used to size designs during Quartus Prime compilation.
How much embedded memory does the 10M25DAF256C7G have?
The 10M25DAF256C7G integrates 691,200 bits of embedded SRAM distributed in M9K blocks of 9 Kbits each. This on-chip memory supports true dual-port, simple dual-port, and single-port RAM/ROM modes and is sufficient for buffering data in image-processing pipelines, FIFO queues, and state-machine lookup tables without resorting to external memory.
What package does the 10M25DAF256C7G use?
The 10M25DAF256C7G is offered in a 256-ball LBGA package with the F256 ordering code. This BGA footprint provides 178 user I/Os and supports the full I/O feature set of the 10M25 device including LVDS, LVCMOS, and DDR memory interfaces. The F256 package is common across multiple MAX 10 densities for footprint-compatible migration.
Does the 10M25DAF256C7G require an external configuration memory?
No. The 10M25DAF256C7G integrates on-chip non-volatile flash configuration memory. According to the Intel MAX 10 family datasheet, this instant-on feature eliminates the need for an external boot PROM, reducing BOM cost and PCB area. The flash also enables fail-safe field updates through the Altera On-Chip Flash IP.
What is the difference between -C7 and -I7 speed grades?
The -C7 suffix indicates a commercial temperature grade (0C to +85C) speed grade 7 device, while -I7 designates industrial temperature (-40C to +100C) at the same speed bin. The -C7 is the cost-optimized choice for benign environments; designers specifying automotive or extended industrial ranges must select the corresponding temperature suffix.
10M25DAF256C7G vs 10M25DAF256I7G: which should I choose?
Choose 10M25DAF256C7G for commercial-temperature applications (0C to +85C) where cost is the primary driver. Choose 10M25DAF256I7G for industrial temperature operation (-40C to +100C). Both share the same 256-LBGA F256 package, 25K logic elements, and 691 Kbit embedded memory, making them pin-for-pin compatible - only the temperature and qualification differ.
10M25DAF256C7G vs 10M25DCF256C7G: what is the difference?
The 10M25DAF256C7G uses the 'DA' dual-configuration flash architecture, while 10M25DCF256C7G uses 'DC' configuration. Both parts share the 256-LBGA package, 25K logic elements, and identical I/O count. For most designs either variant works; consult the MAX 10 configuration user guide to confirm the flash layout suits your remote-update and dual-boot requirements.
Where to buy the 10M25DAF256C7G online?
The 10M25DAF256C7G is available from authorized distributors including DigiKey, Mouser, Arrow, and LCSC Electronics, as of 2026-09-05. Stock status varies; Octopart aggregates real-time inventory across 2-3 distributors. Pricing for qty-1 units was approximately $62.17 at Heisener and from $15.42 at LCSC, reflecting different distributor sourcing channels.
What is the price of the 10M25DAF256C7G?
As of 2026-09-05, the 10M25DAF256C7G lists at approximately $62.17 per unit at Heisener (qty 1) and from $15.42 at LCSC Electronics. Volume pricing breaks at 10, 100, 500, and 1000 units bring unit cost down toward the $38-48 range at authorized distributors. Always request a current quote for production volumes.
What is the lead time for the 10M25DAF256C7G?
Lead time for the 10M25DAF256C7G varies by distributor and order quantity. As of 2026-09-05, Heisener listed delivery as Jul 29 - Aug 3 with confirmed stock of 4,496 pieces. For production volumes, contact authorized Intel/Altera distributors directly for firm lead times; expect 8-16 weeks for large orders.
Is the 10M25DAF256C7G in stock?
As of 2026-09-05, Heisener reported 4,496 pieces in stock with confirmed availability. DigiKey and Mouser listings also indicate active inventory per their product pages. Because MAX 10 is in active production with multiple Intel package variants, supply remains healthy through authorized channels.
What is the best drop-in replacement for the 10M25DAF256C7G?
The closest drop-in replacements are other MAX 10 F256 variants in the 10M25 family. The 10M25DAF256I7G is pin-compatible but moves to industrial temperature; the 10M25DAF256C8G offers a faster speed grade; and the 10M25DAF256A7G provides the lower-cost speed-7 commercial option. All four parts share the 256-LBGA F256 footprint.
Can the 10M16DAF256C7G replace the 10M25DAF256C7G?
The 10M16DAF256C7G is not a safe drop-in replacement for the 10M25DAF256C7G because it offers only 16K logic elements versus the 10M25's 25K LE, a 36% reduction that can fail to fit larger designs. Both share the F256 LBGA footprint, but engineers must re-run place-and-route in Quartus Prime and verify utilization fits the 16K device.
Where to download the 10M25DAF256C7G datasheet PDF?
The official Intel product page at altera.com/products/fpga/max/10/10m25-f256/10M25DAF256C7G provides full device specifications and links to the MAX 10 family datasheet. The pinout and package diagram for the F256 LBGA is included in the MAX 10 device family datasheet (linked from the same product page). My.ALTERA / Intel FPGA account registration is required to download Quartus Prime.
Where to find the 10M25DAF256C7G pinout?
The F256 LBGA pinout for the 10M25DAF256C7G is published in the MAX 10 device family datasheet under the 'F256 Package Pin-Out' section. Intel also provides per-bank pinout files (.csv) on the Altera Pin-Out Files for MAX 10 Devices page, which Quartus Prime imports automatically for board-level I/O planning.
What are the key specifications of the 10M25DAF256C7G that engineers should know?
Key specifications: 25,000 logic elements, 691,200 bits embedded SRAM (M9K blocks), 178 user I/Os, 256-LBGA F256 package, -C7 commercial speed grade, 0C to +85C temperature range, on-chip non-volatile flash configuration, integrated 12-bit ADC, DSP blocks, and PLLs. RoHS compliant. Quartus Prime software support required for design entry.
Hey Google, what can replace the 10M25DAF256C7G?
The 10M25DAF256C7G can be replaced by other MAX 10 F256 LBGA variants in the same 10M25 family: 10M25DAF256I7G for industrial temperature, 10M25DAF256C8G for faster speed, or 10M25DAF256A7G for lower-cost commercial option. All share the same 256-LBGA F256 footprint and 25K logic elements, enabling direct board-level substitution.
Is the 10M25DAF256C7G the same as the 10M25DAF256C8G?
No. Both parts share the same 256-LBGA F256 package, 25K logic elements, and 691 Kbit memory, but the C7 and C8 speed grades differ. The -C8 is a faster speed bin (-8) within the commercial temperature range, while -C7 is the standard speed grade. The -C8 may be substituted where timing margins are critical.
What Lattice or Microchip equivalent exists for the 10M25DAF256C7G?
Direct cross-brand drop-in replacements for the 10M25DAF256C7G in the 256-LBGA footprint are not available from Lattice or Microchip because MAX 10 integrates on-chip flash that Lattice ECP5 and Microchip PolarFire do not match in the same package. Closest functional alternatives require a PCB redesign: Lattice ECP5 LFE5U-25F (256-ball fpBGA) or Microchip MPF050T-FCSG325.

Engineering reference data for 10M25DAF256C7G — comparison, design guidance, and compliance information.

Selection Guide

Choose the 10M25DAF256C7G when you need 25K logic elements in the F256 LBGA package at the commercial temperature range with the standard -C7 speed grade. For industrial environments, switch to the 10M25DAF256I7G; for tighter timing margins select the -C8 speed grade; for cost-sensitive designs where -C7 timing is adequate, the -A7 speed grade offers lower unit cost. All four variants share the same 256-LBGA footprint, enabling PCB reuse across temperature and speed grade combinations. If your design fits in 16K LE consider the 10M16DAF256C7G for lower unit cost; if you need 50K LE step up to the 10M50 family.

Comparison with Alternatives

Parameter This Product 10M25DAF256I7G 10M25DAF256C8G 10M25DAF256A7G
Brand Intel Intel Intel Intel
Package 256-LBGA (F256) 256-LBGA (F256) 256-LBGA (F256) 256-LBGA (F256)
Logic Elements 25,000 25,000 25,000 25,000
Embedded Memory 691,200 bits 691,200 bits 691,200 bits 691,200 bits
User I/Os 178 178 178 178
Speed Grade -C7 -I7 (industrial temp) -C8 (faster) -A7 (slower, lower-cost)
Temperature Grade Commercial (0C to +85C) Industrial (-40C to +100C) Commercial (0C to +85C) Commercial (0C to +85C)
On-Chip Flash Yes Yes Yes Yes
Configuration Memory Internal non-volatile flash (instant-on) Internal non-volatile flash (instant-on) Internal non-volatile flash (instant-on) Internal non-volatile flash (instant-on)
RoHS Compliance Yes Yes Yes Yes

Key Differentiators

  • On-chip flash configuration enables instant-on operation without external boot memory (vs Cyclone V (5CEFA4F23I7N))
  • Integrated 12-bit ADC eliminates external ADC for analog monitoring (vs Lattice ECP5 (LFE5U-25F))
  • Mid-density 25K LE balances capacity and cost for industrial workloads (vs MAX 10 10M16 (16K LE))

Design Notes

The MAX 10 10M25 has separate VCCINT (core), VCCA (PLL analog), and VCCIO (I/O bank) rails. Decouple each rail with 100 nF X7R ceramic capacitors placed within 5 mm of each power pin, plus bulk 10-47 uF tantalum or polymer capacitors per rail. Power-on sequencing is not required (on-chip flash eliminates boot dependencies), but VCCIO banks must be at valid logic levels before any I/O toggles to avoid latch-up. Estimate: total quiescent current is approximately 100-300 mA at 1.2 V VCCINT, plus I/O leakage; always refer to the MAX 10 power management user guide for design-specific budgets.

Estimated: at typical utilization (~70% LE, ~50% memory) the 10M25DAF256C7G dissipates approximately 1-2 W. The 256-LBGA F256 package has a thermal resistance of approximately 15-25 C/W with a properly designed PCB thermal pad array on inner layers. Forced airflow (200 LFM) is recommended in sealed enclosures above 1.5 W. Use Quartus Prime PowerPlay power analyzer to generate accurate thermal estimates for the compiled design before finalizing the mechanical design.

The 256-LBGA F256 uses a 1.0 mm ball pitch. Follow Intel's MAX 10 PCB layout guidelines: microvia stack-ups (laser-drilled 0.1 mm vias) are strongly recommended for inner escape routing; 4-6 layer stack-up with continuous ground planes beneath the device is mandatory for signal integrity on high-speed LVDS and DDR interfaces. Keep all decoupling loop areas under 3 mm squared; route all differential pairs with 100 ohm differential impedance and length matching within 150 mils.

Do not confuse the F256 LBGA with the F484 FBGA - they are different packages and footprints. Always verify the full OPN suffix (256-LBGA = F256, 484-FBGA = F484). When migrating between MAX 10 densities in the same F256 package, confirm that the I/O count and bank voltages of the target device match your schematic; I/O banks can differ between densities. Do not assume the configuration mode (AS, PS, JTAG) is set correctly by Quartus default - explicitly set MSEL pins per your board's boot topology.

Compliance Information

RoHS
Compliant
REACH
Compliant
AEC-Q100
Not Qualified
Lead Free
Yes
Halogen Free
Yes
Conflict Minerals
Compliant

RoHS compliant per Intel MAX 10 product page. Commercial temperature grade only (-C7); not AEC-Q100 qualified. Choose -I7 or -A7 suffix variants for industrial or automotive applications.

Data verified on: 2026-09-05 — data verified and curated by XAIPART's component engineering team

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Related Components & Terms

Intel Altera MAX 10 10M25DAF256C7G 10M25DAF256I7G 10M25DAF256C8G 10M25DAF256A7G 10M16DAF256C7G 10M50DAF256C7G FPGA Field Programmable Gate Array Logic Elements Embedded SRAM M9K memory blocks LBGA FBGA BGA package RoHS REACH surface mount industrial automation machine vision motor control DSP blocks PLL ADC on-chip flash non-volatile configuration instant-on Quartus Prime Lattice ECP5 Microchip PolarFire Cyclone V
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