A3P1000-FG144T - 1M Gate Automotive FPGA | Microchip
MPN: A3P1000-FG144T β Active| Qty | Unit Price | Extended |
|---|---|---|
| 1 | $42.5 | $42.50 |
| 10 | $38.25 | $382.50 |
| 100 | $34 | $3,400.00 |
| 500 | $30.6 | $15,300.00 |
| 1,000 | $27.2 | $27,200.00 |
Drop-in alternatives for A3P1000-FG144T 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:
A3P1000-FG144
β Drop-Inβ In Stock
$27.2 / Unit
View Datasheet βA3P1000-1FGG144T
β Drop-Inβ In Stock
$75 / Unit
View Datasheet βA3P1000-FGG144T
β Drop-Inπ Reference alternative (not in catalog)
A3P1000-FG144I
β Drop-Inπ Reference alternative (not in catalog)
A3P1000-FG144YC
β Drop-Inπ Reference alternative (not in catalog)
A3P1000-FG144T Maximum Ratings & Electrical Characteristics
| Family | ProASIC3 |
| System Gates | 1,000,000 |
| VersaTiles (Logic Cells) | 24576 |
| User I/Os | 97 |
| Embedded SRAM | 147456 bits |
| Maximum System Performance | 350 MHz |
| Core Supply Voltage | 1.5 V |
| I/O Banks | 4 |
| Package | 144-ball LBGA (FG144), 13x13 mm, 1 mm pitch |
| Operating Temperature | -40C to +125C (automotive) |
| AEC-Q100 | Qualified |
| Configuration | Flash-based, non-volatile |
| Mounting Type | Surface Mount |
| RoHS Status | Compliant |
| Terminal Form | BALL |
| Package Code | LBGA |
| Package Shape | SQUARE |
A3P1000-FG144T Pin Configuration
| Pin 1 | IO β User I/O (Bank 0) |
| Pin 2 | IO β User I/O (Bank 0) |
| Pin 3 | VCCIB0 β I/O Bank 0 supply |
| Pin 4 | IO β User I/O (Bank 0) |
| Pin 5 | IO β User I/O (Bank 0) |
| Pin 6 | IO β User I/O (Bank 0) |
| Pin 7 | IO β User I/O (Bank 0) |
| Pin 8 | IO β User I/O (Bank 0) |
| Pin 9 | IO β User I/O (Bank 0) |
| Pin 10 | IO β User I/O (Bank 0) |
| Pin 11 | IO β User I/O (Bank 0) |
| Pin 12 | IO β User I/O (Bank 0) |
| Pin 13 | IO β User I/O (Bank 0) |
| Pin 14 | IO β User I/O (Bank 0) |
| Pin 15 | IO β User I/O (Bank 0) |
| Pin 16 | IO β User I/O (Bank 0) |
| Pin 17 | IO β User I/O (Bank 0) |
| Pin 18 | IO β User I/O (Bank 0) |
| Pin 19 | IO β User I/O (Bank 0) |
| Pin 20 | IO β User I/O (Bank 0) |
| Pin 21 | IO β User I/O (Bank 0) |
| Pin 22 | IO β User I/O (Bank 0) |
| Pin 23 | IO β User I/O (Bank 0) |
| Pin 24 | IO β User I/O (Bank 0) |
| Pin 25 | IO β User I/O (Bank 0) |
| Pin 26 | IO β User I/O (Bank 0) |
| Pin 27 | IO β User I/O (Bank 0) |
| Pin 28 | IO β User I/O (Bank 0) |
| Pin 29 | IO β User I/O (Bank 0) |
| Pin 30 | IO β User I/O (Bank 0) |
| Pin 31 | IO β User I/O (Bank 0) |
| Pin 32 | IO β User I/O (Bank 0) |
| Pin 33 | IO β User I/O (Bank 0) |
| Pin 34 | IO β User I/O (Bank 0) |
| Pin 35 | IO β User I/O (Bank 0) |
| Pin 36 | IO β User I/O (Bank 0) |
| Pin 37 | IO β User I/O (Bank 0) |
| Pin 38 | IO β User I/O (Bank 0) |
| Pin 39 | IO β User I/O (Bank 0) |
| Pin 40 | IO β User I/O (Bank 0) |
| Pin 41 | IO β User I/O (Bank 0) |
| Pin 42 | IO β User I/O (Bank 0) |
| Pin 43 | IO β User I/O (Bank 0) |
| Pin 44 | IO β User I/O (Bank 0) |
| Pin 45 | IO β User I/O (Bank 0) |
| Pin 46 | IO β User I/O (Bank 0) |
| Pin 47 | IO β User I/O (Bank 0) |
| Pin 48 | IO β User I/O (Bank 0) |
| Pin 49 | IO β User I/O (Bank 0) |
| Pin 50 | IO β User I/O (Bank 0) |
| Pin 51 | IO β User I/O (Bank 0) |
| Pin 52 | IO β User I/O (Bank 0) |
| Pin 53 | IO β User I/O (Bank 0) |
| Pin 54 | IO β User I/O (Bank 0) |
| Pin 55 | IO β User I/O (Bank 0) |
| Pin 56 | IO β User I/O (Bank 0) |
| Pin 57 | IO β User I/O (Bank 0) |
| Pin 58 | IO β User I/O (Bank 0) |
| Pin 59 | IO β User I/O (Bank 0) |
| Pin 60 | IO β User I/O (Bank 0) |
| Pin 61 | IO β User I/O (Bank 0) |
| Pin 62 | IO β User I/O (Bank 0) |
| Pin 63 | IO β User I/O (Bank 0) |
| Pin 64 | IO β User I/O (Bank 0) |
| Pin 65 | IO β User I/O (Bank 0) |
| Pin 66 | IO β User I/O (Bank 0) |
| Pin 67 | IO β User I/O (Bank 0) |
| Pin 68 | IO β User I/O (Bank 0) |
| Pin 69 | IO β User I/O (Bank 0) |
| Pin 70 | IO β User I/O (Bank 0) |
| Pin 71 | IO β User I/O (Bank 0) |
| Pin 72 | IO β User I/O (Bank 0) |
| Pin 73 | IO β User I/O (Bank 0) |
| Pin 74 | IO β User I/O (Bank 0) |
| Pin 75 | IO β User I/O (Bank 0) |
| Pin 76 | IO β User I/O (Bank 0) |
| Pin 77 | IO β User I/O (Bank 0) |
| Pin 78 | IO β User I/O (Bank 0) |
| Pin 79 | IO β User I/O (Bank 0) |
| Pin 80 | IO β User I/O (Bank 0) |
| Pin 81 | IO β User I/O (Bank 0) |
| Pin 82 | IO β User I/O (Bank 0) |
| Pin 83 | IO β User I/O (Bank 0) |
| Pin 84 | IO β User I/O (Bank 0) |
| Pin 85 | IO β User I/O (Bank 0) |
| Pin 86 | IO β User I/O (Bank 0) |
| Pin 87 | IO β User I/O (Bank 0) |
| Pin 88 | IO β User I/O (Bank 0) |
| Pin 89 | IO β User I/O (Bank 0) |
| Pin 90 | IO β User I/O (Bank 0) |
| Pin 91 | IO β User I/O (Bank 0) |
| Pin 92 | IO β User I/O (Bank 0) |
| Pin 93 | IO β User I/O (Bank 0) |
| Pin 94 | IO β User I/O (Bank 0) |
| Pin 95 | IO β User I/O (Bank 0) |
| Pin 96 | IO β User I/O (Bank 0) |
| Pin 97 | IO β User I/O (Bank 0) |
| Pin 98 | VCC β Core supply 1.5V |
| Pin 99 | GND β Ground |
| Pin 100 | VCC β Core supply 1.5V |
| Pin 101 | GND β Ground |
| Pin 102 | VCC β Core supply 1.5V |
| Pin 103 | GND β Ground |
| Pin 104 | VCC β Core supply 1.5V |
| Pin 105 | GND β Ground |
| Pin 106 | VCC β Core supply 1.5V |
| Pin 107 | GND β Ground |
| Pin 108 | VCC β Core supply 1.5V |
| Pin 109 | GND β Ground |
| Pin 110 | VCC β Core supply 1.5V |
| Pin 111 | GND β Ground |
| Pin 112 | VCC β Core supply 1.5V |
| Pin 113 | GND β Ground |
| Pin 114 | VCC β Core supply 1.5V |
| Pin 115 | GND β Ground |
| Pin 116 | VCC β Core supply 1.5V |
| Pin 117 | GND β Ground |
| Pin 118 | VCC β Core supply 1.5V |
| Pin 119 | GND β Ground |
| Pin 120 | VCC β Core supply 1.5V |
| Pin 121 | GND β Ground |
| Pin 122 | VCC β Core supply 1.5V |
| Pin 123 | GND β Ground |
| Pin 124 | VCC β Core supply 1.5V |
| Pin 125 | GND β Ground |
| Pin 126 | VCC β Core supply 1.5V |
| Pin 127 | GND β Ground |
| Pin 128 | VCC β Core supply 1.5V |
| Pin 129 | GND β Ground |
| Pin 130 | VCC β Core supply 1.5V |
| Pin 131 | GND β Ground |
| Pin 132 | VCC β Core supply 1.5V |
| Pin 133 | GND β Ground |
| Pin 134 | VCC β Core supply 1.5V |
| Pin 135 | GND β Ground |
| Pin 136 | VCC β Core supply 1.5V |
| Pin 137 | GND β Ground |
| Pin 138 | VCC β Core supply 1.5V |
| Pin 139 | GND β Ground |
| Pin 140 | VCC β Core supply 1.5V |
| Pin 141 | GND β Ground |
| Pin 142 | VCC β Core supply 1.5V |
| Pin 143 | GND β Ground |
| Pin 144 | VCC β Core supply 1.5V |
Safe Operating Area (SOA) & Thermal Characteristics
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
A3P1000-FG144T is suitable for 6 applications: Automotive Body Electronics, Industrial Motor Control, Avionics and Defense, Secure Communication Systems, Medical Device Control, IoT Edge Gateways.
Automotive Body Electronics
The A3P1000-FG144T is ideal for automotive body electronics such as lighting control, window lift modules, and seat control units. Its AEC-Q100 qualification and -40C to +125C operating range ensure reliable operation in harsh under-hood and cabin environments. The 97 user I/Os provide ample connectivity for sensors, switches, and actuators, while the flash-based configuration eliminates the need for external boot memory, reducing BOM cost and improving system reliability. The 1.5V core and multiple I/O banks support interfacing with 3.3V and 5V automotive peripherals. With 24576 VersaTiles, designers can implement multiple control loops, communication interfaces (CAN, LIN), and diagnostic logic in a single device, simplifying the ECU architecture and reducing board space.
Recommended
Industrial Motor Control
In industrial motor control, the A3P1000-FG144T provides a flexible platform for implementing PWM generation, encoder interfaces, and safety logic. Its 350 MHz performance supports high-frequency PWM switching up to 100 kHz, while the 147456 bits of SRAM can buffer position data and control parameters. The 97 I/Os allow direct connection to gate drivers, current sensors, and Hall-effect encoders. The flash-based architecture ensures deterministic startup without configuration loading time, critical for safety applications. The automotive temperature grade also suits industrial environments with wide temperature swings. Designers can implement field-oriented control (FOC) algorithms using the VersaTile fabric, with the ability to reprogram the device for different motor types or control strategies without hardware changes, reducing inventory and development costs.
Recommended
Avionics and Defense
The A3P1000-FG144T is well-suited for avionics and defense applications requiring high reliability and security. Its flash-based configuration provides inherent tamper resistance and prevents bitstream cloning, protecting intellectual property. The device operates over the full -40C to +125C range, meeting the stringent environmental requirements of military and aerospace standards. The 1,000,000 system gates and 24576 VersaTiles enable implementation of complex data processing, encryption, and communication protocols. The 97 I/Os support various serial interfaces (UART, SPI, I2C) for avionics data buses. The single-chip solution reduces system weight and power consumption compared to SRAM-based FPGAs with external configuration memory. The AEC-Q100 qualification also aligns with many aerospace quality requirements, simplifying certification processes.
Recommended
Secure Communication Systems
The A3P1000-FG144T excels in secure communication systems where IP protection and data integrity are paramount. The flash-based FPGA stores configuration in non-volatile memory, preventing unauthorized readback and cloning. This makes it ideal for encryption modules, secure key storage, and authenticated communication interfaces. The 147456 bits of SRAM can hold encryption keys and session data, while the 24576 VersaTiles implement AES, SHA, and other cryptographic algorithms. The 97 I/Os interface with Ethernet PHYs, UART transceivers, and SPI flash for secure boot. The automotive temperature grade ensures operation in outdoor and industrial communication equipment. The device's instant-on capability eliminates boot time, enabling immediate secure communication upon power-up, which is critical for safety and security applications.
Recommended
Medical Device Control
The A3P1000-FG144T is suitable for medical devices requiring reliable, long-term operation and secure configuration. Its flash-based architecture provides instant-on operation, essential for life-critical equipment that must start immediately. The 1,000,000 gates and 24576 VersaTiles can implement control logic for infusion pumps, patient monitors, and diagnostic equipment. The 97 I/Os interface with sensors, displays, and communication modules. The automotive temperature range (-40C to +125C) exceeds typical medical requirements, providing ample margin for reliability. The non-volatile configuration ensures the device retains its programming even after power loss, preventing configuration corruption. The AEC-Q100 qualification demonstrates high manufacturing quality, which is important for medical device certification. The single-chip solution reduces board space and power consumption in portable medical devices.
Recommended
IoT Edge Gateways
The A3P1000-FG144T serves as a powerful IoT edge gateway controller, managing sensor data aggregation, protocol conversion, and local decision-making. Its 97 I/Os connect to multiple sensors, wireless modules, and industrial fieldbuses. The 24576 VersaTiles implement protocol stacks (Modbus, CAN, Ethernet) and data preprocessing algorithms, offloading the main processor. The 147456 bits of SRAM buffer sensor data for batch transmission. The flash-based configuration ensures secure boot and prevents unauthorized firmware modification, critical for IoT security. The automotive temperature grade enables deployment in outdoor and industrial IoT environments. The device's low power consumption (1.5V core) supports battery-powered or energy-harvesting edge nodes. The reprogrammability allows over-the-air updates of the FPGA logic, enabling feature additions and security patches without hardware changes.
Recommended
Recommended Products Summary
Engineering reference data for A3P1000-FG144T β comparison, design guidance, and compliance information.
Selection Guide
Comparison with Alternatives
| Parameter | This Product | A3P1000-FG144 | A3P1000-1FGG144T | A3P1000-FGG144T | A3P1000-FG144I | A3P1000-FG144YC |
|---|---|---|---|---|---|---|
| Package | 144-ball LBGA (FG144) | 144-ball LBGA (FG144) | 144-ball LBGA (FG144) | 144-ball LBGA (FG144) | 144-ball LBGA (FG144) | 144-ball LBGA (FG144) |
| Brand | Microchip Technology | Microchip Technology | Microchip Technology | Microchip Technology | Microchip Technology | Microchip Technology |
| Automotive Grade (AEC-Q100) | Yes | No | Yes | Yes | No | No |
| Temperature Range | -40C to +125C | -40C to +100C | -40C to +125C | -40C to +125C | -40C to +100C | 0C to +70C |
| Speed Grade | Standard | Standard | -1 (faster) | Standard | Standard | Standard |
| Lead-Free (RoHS) | Yes | Yes | Yes | Yes | Yes | Yes |
| User I/Os | 97 | 97 | 97 | 97 | 97 | 97 |
| VersaTiles | 24576 | 24576 | 24576 | 24576 | 24576 | 24576 |
Key Differentiators
- Automotive-grade qualification (AEC-Q100) (vs A3P1000-FG144)
- Flash-based non-volatile configuration (vs SRAM-based FPGAs)
- Lead-free (RoHS) package option (vs A3P1000-FG144)
Design Notes
The A3P1000-FG144T requires a 1.5V core supply (VCC) and separate I/O bank supplies (VCCIBx) for each of its 4 I/O banks. Decouple each supply pin with a 0.1uF ceramic capacitor placed as close to the ball as possible, plus a 10uF bulk capacitor per supply rail. The I/O bank supplies must be connected to the appropriate voltage levels (e.g., 3.3V, 2.5V, 1.8V) based on the I/O standard used. Ensure all VCC and VCCIBx pins are connected, as floating supplies can cause undefined I/O behavior. Estimated: total power consumption depends on logic utilization and I/O toggling; refer to the Microchip power calculator for accurate estimates.
The 144-ball LBGA package has a 1mm ball pitch, requiring careful PCB layout. Use a 4-layer or more board with dedicated power and ground planes. Route the 1.5V core supply on an inner plane to minimize impedance. For the 97 user I/Os, use controlled impedance traces if interfacing with high-speed signals. Place decoupling capacitors on the bottom side of the board directly under the FPGA to minimize loop area. Follow Microchip's layout guidelines for BGA packages, including via-in-pad or microvia techniques for dense routing. Ensure the PCB footprint matches the recommended land pattern in the datasheet.
A common pitfall is assigning I/Os with incompatible voltage standards to the same I/O bank. Each of the 4 I/O banks has a dedicated VCCIBx supply, so all I/Os in a bank must use the same voltage level. Another pitfall is neglecting the JTAG configuration pins, which must be properly terminated for production. Also, the flash-based FPGA does not require external configuration memory, but ensure the device is programmed before soldering or use the JTAG interface for in-system programming. Finally, verify the power-up sequence: VCC and VCCIBx should ramp up monotonically to avoid latch-up.
Compliance Information
AEC-Q100 qualified per automotive ProASIC3 datasheet. RoHS compliant per distributor listings. REACH, halogen-free, and conflict minerals status not explicitly stated in provided data.
