Intel

10M04SAU324I7G - MAX 10 FPGA, 4K LE, 246 I/O | Intel

MPN: 10M04SAU324I7G ✓ Active
In Stock Ships in 1-3 business days
1.0 V (10M04S variant) Vdss 324-LFBGA (UBGA-324), 15 mm x 15 mm Package [DATA_NEEDED: global clock network count] Speed 193,536 Memory
From $16.2 USD / Unit
MOQ: 1 |
Price updated: 2026-09-05
Volume Pricing
Qty Unit Price Extended
1 $22.22 $22.22
10 $21.1 $211.00
100 $19.45 $1,945.00
500 $17.8 $8,900.00
1,000 $16.2 $16,200.00
ℹ️ All prices are in USD

Drop-in alternatives for 10M04SAU324I7G — 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:

10M04DAU324I7G

✅ Drop-In
Intel
📦 324-LFBGA (UBGA-324)
MAX 10 · 4,000 · [DATA_NEEDED: M9K count] · 193,536 bits · 246 · 55 nm TSMC · 1.2 V · 324-pin UFBGA (U324)

✓ In Stock

$13.5 / Unit

View Datasheet →

10M04DCU324C8G

✅ Drop-In
Intel
📦 324-LFBGA (UBGA-324)
MAX 10 · MAX 10 (10M04 density) · 4,000 · 246 · 246 Kbit (M9K blocks) · 193,536 · 16 · 55 nm embedded NOR Flash + CMOS

✓ In Stock

$13.8 / Unit

View Datasheet →

10M04DCU324I7P

✅ Drop-In
Altera
📦 324-LFBGA (UBGA-324)
MAX 10 · 4,000 · 193,536 bits · 246 · 324-ball UFBGA (UBGA-324) · 55 nm · 1.2 V · Industrial (-40C to +100C TJ)

✓ In Stock

$9.95 / Unit

View Datasheet →

10M04DCU324A7G

✅ Drop-In
Intel
📦 324-LFBGA (UBGA-324)
MAX 10 · 4,000 · 55 nm · 1.2 V · 193,536 · Integrated (non-volatile configuration) · 246 · 324-pin UFBGA (U324)

✓ In Stock

$9.85 / Unit

View Datasheet →

10M04SAU324I7G Maximum Ratings & Electrical Characteristics

Family MAX 10
Logic Elements (LE) 4,000
Maximum User I/Os 246
Embedded Memory (bits) 193,536
Embedded Memory Blocks M9K, 16 Kbits each
Number of Analog Inputs (ADC) 4 (single-ended) / up to 8 (differential via soft IP)
ADC Resolution 12-bit SAR
Configuration Memory On-chip dual-configuration flash (non-volatile)
Process Technology TSMC 55nm embedded flash
Core Voltage 1.0 V (10M04S variant)
Operating Temperature Range -40C to +100C (Industrial, 'I' grade)
Speed Grade 7 (I7G speed bin)
Package 324-LFBGA (UBGA-324), 15 mm x 15 mm
Mounting Type Surface Mount (BGA)
RoHS Status Compliant
MSL Level 3
Design Tool Intel Quartus Prime (Lite / Standard / Pro)

10M04SAU324I7G 324-lfbga (ubga-324), 15 mm x 15 mm Pin Configuration Guide

Complete pinout information for 10M04SAU324I7G (324-lfbga (ubga-324), 15 mm x 15 mm 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.

324-lfbga (ubga-324), 15 mm x 15 mm package pinout diagram for 10M04SAU324I7G

No detailed pinout data available for 10M04SAU324I7G.

Refer to the datasheet for full pin configuration.

Safe Operating Area (SOA) & Thermal Characteristics

Safe Operating Area Chart Default safe operating area chart for 10M04SAU324I7G 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

10M04SAU324I7G is suitable for 6 applications: Industrial Sensor Aggregation Bridge, Motor Control Pre-Processing Front-End, Portable Medical Device Front-End, I/O Expansion Bridge for SoCs, Industrial HMI Display Bridge, Factory Automation Protocol Converter.

🏭

Industrial Sensor Aggregation Bridge

The 10M04SAU324I7G aggregates up to 246 LVCMOS channels from industrial sensors (encoders, switches, analog front-ends) and bridges them to an upstream SoC over SPI, I2C, or parallel. Its integrated 12-bit SAR ADC digitizes up to 4 analog sensor channels without an external ADC, reducing BOM and PCB area by approximately 30% versus a discrete MCU-plus-CPLD-plus-ADC implementation. Industrial temperature range (-40C to +100C) and on-chip dual-configuration flash make it tolerant of factory-floor thermal stress and power-cycle events; instant-on configuration eliminates boot-time windows during cold-start.

🏭

Motor Control Pre-Processing Front-End

The 10M04SAU324I7G performs pre-processing for BLDC and stepper motor control loops: encoding quadrature signals (QEI), generating PWM timers, and monitoring current/voltage via its on-die 12-bit ADC. The 4K logic elements support up to 4 simultaneous encoder channels with deterministic propagation delay, while the 246 I/Os give the design headroom for parallel bus expansion to a host DSP/MCU. Compared with a software-only implementation on an MCU, the MAX 10 offloads deterministic logic and frees CPU cycles for the actual control algorithm, improving loop bandwidth and reducing jitter.

💊

Portable Medical Device Front-End

In portable medical devices (handheld patient monitors, point-of-care analyzers), the 10M04SAU324I7G serves as a low-power glue-logic and ADC hub. The on-chip 12-bit ADC captures bio-sensor signals (pulse-oximeter current, temperature thermistor voltage) without an external ADC chip; 4K logic elements implement the digital filter and pacing logic; and 246 I/Os accommodate LCD parallel interfaces, button matrices, and host communication. Industrial temperature range supports storage and operation in clinical environments, while the small 15x15 mm BGA package fits handheld enclosures with limited PCB area.

🧩

I/O Expansion Bridge for SoCs

The 10M04SAU324I7G frequently serves as an I/O expansion companion to cost-sensitive SoCs that have limited GPIO or no industrial-temperature interfaces. It connects to the SoC via SPI (typical 50 MHz) or parallel bus, exposing additional UART, I2C, SPI, PWM, or LVCMOS channels under firmware control. The MAX 10's industrial temperature rating and on-chip flash make it more robust than SRAM-based expansion FPGAs that lose configuration on power-cycle, while the integrated 4-input ADC adds analog channels the SoC lacks. Typical use cases include SBC I/O expansion, HDMI-to-LVDS bridges, and PC/104-style peripheral cards.

📺

Industrial HMI Display Bridge

The 10M04SAU324I7G bridges an industrial HMI controller (typically an ARM Cortex-A or Cortex-R SoC) to a TFT LCD panel via parallel RGB or LVDS. Its 246 I/Os carry 18- or 24-bit color data plus HSYNC/VSYNC/DE timing; 4K logic elements handle line buffers, gamma correction, and backlight PWM; and the on-chip ADC monitors the panel's temperature-sense thermistor for thermal protection. The industrial temperature range supports outdoor or factory-cabinet deployments, while the on-chip flash enables instant-on panel wake-up without external boot devices - critical for safety HMI prompts.

🏭

Factory Automation Protocol Converter

The 10M04SAU324I7G implements protocol-conversion gateways in factory automation: UART/SPI/I2C on one side, RS-485 / CAN / Modbus RTU on the other. Its 246 I/Os handle multiple isolated bus channels simultaneously, while the integrated 12-bit ADC monitors 24V rail voltage for under-voltage/over-voltage detection. The MAX 10's dual-configuration flash supports fail-safe firmware A/B updates, and the industrial temperature range is essential for cabinet-mounted deployments near motors and heaters. Quartus Prime reference designs are available for common protocols, shortening time-to-prototype for new gateways.

What is the 10M04SAU324I7G and what family does it belong to?
The 10M04SAU324I7G is a member of the Intel MAX 10 family of non-volatile FPGAs, integrating 4,000 logic elements and 246 user I/Os in a 324-ball LFBGA (UBGA-324) package. According to the Intel MAX 10 device datasheet, it uses on-chip dual-configuration flash for instant-on operation without an external boot PROM. The '10M04' prefix denotes the family and 4K LE density class; the 'S' indicates single-power-supply operation; 'AU324' is the U324 ball-grid package; 'I7G' is the industrial temperature / speed grade 7 ordering code.
What is the operating temperature range of 10M04SAU324I7G?
The 10M04SAU324I7G operates over the industrial temperature range of -40C to +100C ambient (junction up to +125C). This is denoted by the 'I' (Industrial) prefix in the ordering code. According to Intel's MAX 10 device handbook, Industrial-grade parts are recommended for industrial automation, automotive non-safety sub-systems, and outdoor equipment where commercial-grade (0C to +85C) parts would not survive thermal stress. The '7' speed grade is the standard industrial speed bin.
How many user I/O pins does the 10M04SAU324I7G have?
The 10M04SAU324I7G supports up to 246 user I/Os in the U324 (324-ball LFBGA) package. According to the MAX 10 device datasheet, the U324 package exposes the maximum I/O count for the 10M04 die. This makes it ideal for high-fanout designs such as sensor aggregation, parallel display interfaces, or industrial bridges that need dozens of LVCMOS 1.8/2.5/3.3 channels. Per-bank I/O standards are configured in Quartus Prime Pin Planner; typical banks support LVTTL, LVCMOS, SSTL, and differential LVDS pairs.
Does the 10M04SAU324I7G contain an ADC?
Yes, the 10M04SAU324I7G integrates a hard 12-bit SAR ADC with up to 4 single-ended analog inputs (or up to 8 differential channels via soft IP multiplexing). According to the Intel MAX 10 analog features chapter, this on-die ADC operates from the 3.0/3.3V analog supply and supports sequential sampling. This eliminates the need for an external ADC in sensor-aggregation designs and saves both PCB area and BOM cost in industrial IoT nodes and battery-management front-ends.
What is the difference between MAX 10 10M04 and Cyclone IV GX FPGAs?
MAX 10 10M04 is a non-volatile FPGA with on-chip flash configuration and an integrated 12-bit ADC, while Cyclone IV GX is an SRAM-based FPGA requiring an external configuration PROM and containing dedicated 3.125 Gbps transceivers. According to Intel's product family guides, the 10M04 is targeted at cost-sensitive, logic-integration roles with moderate logic density, whereas Cyclone IV GX targets applications needing multi-Gbps serial links. Drop-in migration is not possible - design files must be re-targeted to the new family in Quartus Prime.
Where can I download the 10M04SAU324I7G datasheet PDF?
The official 10M04SAU324I7G datasheet is available on the Intel FPGA documentation portal at the MAX 10 device datasheet page. According to the verified search results, the MAX 10 datasheet PDF covers electrical characteristics, pinout, package thermal data, and configuration modes for all 10M04 ordering part numbers including 10M04SAU324I7G. Mouser and DigiKey product pages also host datasheet PDF mirrors. Always verify revision (e.g., M10-DATASHEET revision letter) before basing a design on it.
What is the pinout of the 10M04SAU324I7G?
The 10M04SAU324I7G uses a 324-ball LFBGA package (15 mm x 15 mm body) with a 0.8 mm ball pitch. According to Intel's MAX 10 pinout files (available as .qsf/.csv in Quartus Prime), pin assignments are spread across 8 I/O banks plus dedicated JTAG, configuration, clock, and power/ground balls. Per-bank reference voltages support mixed-voltage interfaces. The full 324-ball pin assignment is documented in the device pin connection guidelines; we set pinout:null in this product record because of the high pin count and per-pin configurability of FPGAs.
What is the price of the 10M04SAU324I7G and where can I buy it?
The 10M04SAU324I7G was priced at $22.22 per unit (qty 1) at LCSC as of 2026-09-05, with tier discounts at qty 100 down to roughly $19.45. According to distributor listings, authorized distributors include DigiKey (Digi-Key part 8259242), Mouser, Arrow, LCSC, and element14. Industrial buyers may request quotes for tape-and-reel packaging. Note: pricing fluctuates with lead-time and foundry allocation; always confirm the latest quote before placing a volume PO.
Is the 10M04SAU324I7G in stock and what is the lead time?
According to the verified distributor listings (DigiKey listing 8259242), the 10M04SAU324I7G was listed as 'ships today' with immediate availability at DigiKey as of 2026-09-05. Lead times at LCSC and other distributors typically run 4-12 weeks for volume orders depending on factory allocation. Industrial customers are advised to confirm lead time at the time of RFQ, as MAX 10 supply is generally stable but subject to standard semiconductor allocation cycles.
What is the best drop-in replacement for the 10M04SAU324I7G?
The closest drop-in same-package alternatives are other MAX 10 family members in the U324 package: 10M04DAU324I7G (dual-supply variant) and 10M04DCU324I7P (lower-power C-grade). According to the MAX 10 ordering code guide, the '10M04S' / '10M04D' / '10M04DC' suffixes differ in supply voltage architecture (single 3.3V vs dual 1.2V+3.3V) but share the same 324-ball U324 footprint and the same 4,000 logic-element die. Cross-family migration (e.g., to Lattice ECP5 or Xilinx Spartan-7) is NOT drop-in and requires full re-design.
10M04SAU324I7G vs 10M04DAU324I7G - which is better for low-power designs?
The 10M04DAU324I7G (dual-supply, 'D') is the better choice for low-power designs because it separates the 1.2V core supply from the 3.3V I/O supply, enabling finer-grained power gating and lower static current. The 10M04SAU324I7G ('S' single-supply) is simpler to bring up but draws slightly more current on the 3.3V rail because it has an internal LDO for the core. Both share the same 324-ball U324 footprint and 4K logic-element die, making them pin-compatible. Choose 'D' for battery-powered or power-sensitive designs.
What is the difference between 10M04SAU324I7G and 10M04DCU324C8G?
The 10M04SAU324I7G is an Industrial-grade single-supply part (speed 7), while the 10M04DCU324C8G is a Commercial-grade (C, 0C to +85C) dual-supply part with speed grade 8. Both share the same 324-ball U324 LFBGA footprint and the same 4,000 logic-element die, making them drop-in in PCB layout but with different operating conditions. According to the verified Site MPN list, both are active parts in the MAX 10 family; choose 10M04SAU324I7G for industrial temperature range and 10M04DCU324C8G for cost-optimized commercial-temperature designs.
What are the key specifications of 10M04SAU324I7G that engineers should know?
The 10M04SAU324I7G integrates 4,000 logic elements, 193,536 bits of embedded M9K SRAM, up to 246 user I/Os, a 12-bit SAR ADC with 4 analog inputs, dual-configuration on-chip flash, and an industrial temperature rating of -40C to +100C in a 324-ball LFBGA (U324) package. According to the Intel MAX 10 datasheet, it operates from a single 3.3V supply (with internal LDO for the 1.0V core) and supports instant-on configuration at cold-start. Quartus Prime Lite is the free design toolchain.
Can the Lattice iCE40 or Xilinx Spartan-7 replace the 10M04SAU324I7G as a drop-in?
No - Lattice iCE40 and Xilinx Spartan-7 are NOT drop-in replacements for the 10M04SAU324I7G. According to the verified cross-reference data, equivalent products in terms of functionality can be found in other FPGA families like Xilinx Spartan-7 or Lattice iCE40, but they use different packages (BGA pitch, ball map), different configuration schemes (SRAM-only, require external flash or internal NVCM), and different toolchains (Vivado/Lattice Radiant vs Quartus). Migration requires full RTL retargeting, board rework, and firmware rewrite - typically a multi-week engineering effort.
When should I choose 10M04SAU324I7G over a discrete MCU + CPLD solution?
Choose the 10M04SAU324I7G over an MCU + CPLD combo when you need parallel multi-channel logic with deterministic latency, more than 100 user I/Os, or on-chip analog inputs. According to Intel's MAX 10 collateral, the integrated ADC and 4K LE of fabric in a single package replace a typical MCU + external ADC + CPLD triplet on a smaller PCB and lower BOM. For sequential control loops under 50 MHz with simple I/O, a microcontroller (e.g., ARM Cortex-M4) is usually more power-efficient; for parallel logic aggregation or sensor fusion above 4K LE, the MAX 10 is the better fit.

Engineering reference data for 10M04SAU324I7G — comparison, design guidance, and compliance information.

Selection Guide

Choose the 10M04SAU324I7G when you need a low-cost, industrial-temperature, single-supply FPGA with on-chip non-volatile configuration and integrated ADC for industrial sensor aggregation, I/O expansion, or motor-control pre-processing. Choose 10M04DAU324I7G if you want dual-supply architecture for finer power gating. Choose 10M04DCU324C8G for commercial-temperature cost-optimized designs. Choose 10M04DCU324I7P for lower-power C-fabric industrial designs. Avoid the MAX 10 family entirely if you need multi-Gbps transceivers, external DRAM interfaces beyond DDR3, or more than 50K logic elements - migrate to Cyclone V or Cyclone 10 GX. All four U324 OPNs share the same footprint, making them drop-in alternatives in PCB layout but with different supply and temperature envelopes.

Comparison with Alternatives

Parameter This Product 10M04DAU324I7G 10M04DCU324C8G 10M04DCU324I7P 10M04DCU324A7G
Package 324-LFBGA (UBGA-324) 324-LFBGA (UBGA-324) - same 324-LFBGA (UBGA-324) - same 324-LFBGA (UBGA-324) - same 324-LFBGA (UBGA-324) - same
Brand Intel Intel Intel Intel Intel
Logic Elements 4,000 4,000 - same 4,000 - same 4,000 - same 4,000 - same
Embedded Memory (bits) 193,536 193,536 - same 193,536 - same 193,536 - same 193,536 - same
Maximum User I/Os 246 246 - same 246 - same 246 - same 246 - same
Supply Architecture Single (3.3V, S-grade) Dual (1.2V core + 3.3V I/O, D-grade) Dual (DC-grade) Dual low-power (DC-grade) Dual (DC-grade)
Temperature Grade Industrial (-40C to +100C) Industrial (-40C to +100C) Commercial (0C to +85C) Industrial (-40C to +100C) Automotive-grade
Speed Grade 7 7 8 7 7
ADC 12-bit SAR, 4 inputs 12-bit SAR, 4 inputs - same 12-bit SAR, 4 inputs - same 12-bit SAR, 4 inputs - same 12-bit SAR, 4 inputs - same
Qty-1 Price (USD, as of 2026-09-05) $22.22 [DATA_NEEDED] [DATA_NEEDED] [DATA_NEEDED] [DATA_NEEDED]

Key Differentiators

  • On-chip non-volatile flash eliminates external boot PROM (vs Lattice iCE40 / Xilinx Spartan-7)
  • Integrated 12-bit SAR ADC eliminates external ADC chip (vs 10M04DAU324I7G (without ADC usage in design))
  • Same U324 BGA footprint across MAX 10 supply variants (vs Lattice ECP5 (LFE5U series))

Design Notes

The 10M04S-variant is single-supply (3.3V only); the on-chip LDO derives the 1.0V core. Per the MAX 10 device datasheet, the 3.3V VCCIO must come up cleanly and monotonically; if using a switching regulator, ensure output ripple is below 50 mVpp to avoid LDO dropout during cold-start. Estimated: at 50 MHz logic utilization and 100 MHz PLL, ICC core is approximately 50-120 mA; I/O current scales with switching frequency and load. Use 100 nF X7R bypass per power pin and 10 uF bulk near the package.

The 15x15 mm U324 LFBGA has a theta_JA of approximately 18 C/W with a JEDEC-compliant 4-layer PCB (per Intel package thermal data, generic number - verify exact value against the device-specific package file). Estimated: at 2 W total dissipation this yields a 36C temperature rise above ambient - acceptable for industrial use up to 64C ambient. For sealed enclosures, provide copper spreading under the BGA and at least 4 thermal vias into inner planes. Do not rely solely on package-top cooling for high-utilization designs.

Route all 8 I/O bank reference voltages (VREF) and the analog 3.3V supply (VCCA) separately from digital 3.3V. Per Intel MAX 10 hardware guidelines, the ADC analog pins must be guarded with a ground ring and isolated from switching digital traces; failure to do so can degrade ADC SNR by 6-10 dB. Place the 100 MHz external reference crystal within 5 mm of CLK pin with grounded guard ring. JTAG pins (TCK/TMS/TDO/TDI) should be pulled per datasheet if unused - do not leave floating.

Do not assume a re-spin from Cyclone IV to MAX 10 is pin-compatible: package ball maps differ between the families even when ball count matches. Always re-run Quartus Prime Pin Planner and re-import your HDL with the new target device selected. Per Intel migration guides, the configuration bitstream is not portable across families - you must regenerate the .sof/.pof with the correct device selected. The MAX 10 'S' vs 'D' vs 'DC' supply variants also share ball maps but require different external power circuits.

LVDS pairs must be length-matched within 10 ps (about 1.5 mm at the BGA escape pitch) per the MAX 10 device handbook. DDR-style interfaces (DDR3/LPDDR2) require source-synchronous tuning in Quartus Prime timing analyzer; the soft memory controller IP can be parameterised for the specific DRAM. For high-fanout GPIO (greater than 100 simultaneous switching outputs), use staggered slew-rate settings per bank to avoid SSO-induced ground bounce exceeding 0.3V.

Compliance Information

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

RoHS and REACH compliant per Intel product page; lead-free BGA balls per JEDEC J-STD-020. The standard 10M04SAU324I7G is not AEC-Q100 qualified - for automotive sub-systems requiring AEC-Q100, consider 10M04DCU324A7G (Automotive grade) from the same MAX 10 family in the same U324 footprint.

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 10M04SAU324I7G 10M04DAU324I7G 10M04DCU324C8G 10M04DCU324I7P 10M04DCU324A7G MAX 10 FPGA Field Programmable Gate Array LFBGA UBGA-324 logic element embedded M9K memory 12-bit SAR ADC PLL dual-configuration flash non-volatile FPGA TSMC 55nm embedded flash Quartus Prime RoHS REACH AEC-Q100 J-STD-020 industrial temperature grade single-supply LDO I/O expansion bridge sensor aggregation motor control pre-processing HMI display bridge
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