A3P1000-2FGG144 - ProASIC3 FPGA, 1M Gates, 144-FBGA | Microchip
MPN: A3P1000-2FGG144 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 A3P1000-2FGG144 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:
A3P1000-2FGG144I
β Drop-Inβ In Stock
$27.2 / Unit
View Datasheet βA3P1000-1FGG144T
β Drop-Inβ In Stock
$75 / Unit
View Datasheet βA3P1000-FG144T
β Drop-Inβ In Stock
$27.2 / Unit
View Datasheet βA3P1000-FGG144I
β Drop-Inπ Reference alternative (not in catalog)
A3P1000-FG144
β Drop-Inβ In Stock
$27.2 / Unit
View Datasheet βA3P1000-1FGG144T
β Drop-Inβ In Stock
$75 / Unit
View Datasheet βA3P1000-2FGG144 Maximum Ratings & Electrical Characteristics
| Family | ProASIC3 |
| System Gates | 1,000,000 |
| User I/Os | 97 |
| Flash Memory Bits | 147,456 |
| Core Voltage | 1.5 V |
| System Performance | 310 MHz |
| Package | 144-FBGA (FGG144) |
| Mounting Type | Surface Mount |
| Operating Temperature | 0C to +85C (commercial) |
| I/O Standards | LVCMOS, LVTTL, PCI |
| Number of I/O Banks | 4 |
| Lead-Free | Yes |
| RoHS Status | Compliant |
| Technology | 130nm Flash |
| Configuration | Flash-based, non-volatile |
A3P1000-2FGG144 Pin Configuration
| Pin 1 | IO β User I/O (bank-dependent) |
| Pin 2 | IO β User I/O (bank-dependent) |
| Pin 3 | IO β User I/O (bank-dependent) |
| Pin 4 | IO β User I/O (bank-dependent) |
| Pin 5 | IO β User I/O (bank-dependent) |
| Pin 6 | IO β User I/O (bank-dependent) |
| Pin 7 | IO β User I/O (bank-dependent) |
| Pin 8 | IO β User I/O (bank-dependent) |
| Pin 9 | IO β User I/O (bank-dependent) |
| Pin 10 | IO β User I/O (bank-dependent) |
| Pin 11 | IO β User I/O (bank-dependent) |
| Pin 12 | IO β User I/O (bank-dependent) |
| Pin 13 | IO β User I/O (bank-dependent) |
| Pin 14 | IO β User I/O (bank-dependent) |
| Pin 15 | IO β User I/O (bank-dependent) |
| Pin 16 | IO β User I/O (bank-dependent) |
| Pin 17 | IO β User I/O (bank-dependent) |
| Pin 18 | IO β User I/O (bank-dependent) |
| Pin 19 | IO β User I/O (bank-dependent) |
| Pin 20 | IO β User I/O (bank-dependent) |
| Pin 21 | IO β User I/O (bank-dependent) |
| Pin 22 | IO β User I/O (bank-dependent) |
| Pin 23 | IO β User I/O (bank-dependent) |
| Pin 24 | IO β User I/O (bank-dependent) |
| Pin 25 | IO β User I/O (bank-dependent) |
| Pin 26 | IO β User I/O (bank-dependent) |
| Pin 27 | IO β User I/O (bank-dependent) |
| Pin 28 | IO β User I/O (bank-dependent) |
| Pin 29 | IO β User I/O (bank-dependent) |
| Pin 30 | IO β User I/O (bank-dependent) |
| Pin 31 | IO β User I/O (bank-dependent) |
| Pin 32 | IO β User I/O (bank-dependent) |
| Pin 33 | IO β User I/O (bank-dependent) |
| Pin 34 | IO β User I/O (bank-dependent) |
| Pin 35 | IO β User I/O (bank-dependent) |
| Pin 36 | IO β User I/O (bank-dependent) |
| Pin 37 | IO β User I/O (bank-dependent) |
| Pin 38 | IO β User I/O (bank-dependent) |
| Pin 39 | IO β User I/O (bank-dependent) |
| Pin 40 | IO β User I/O (bank-dependent) |
| Pin 41 | IO β User I/O (bank-dependent) |
| Pin 42 | IO β User I/O (bank-dependent) |
| Pin 43 | IO β User I/O (bank-dependent) |
| Pin 44 | IO β User I/O (bank-dependent) |
| Pin 45 | IO β User I/O (bank-dependent) |
| Pin 46 | IO β User I/O (bank-dependent) |
| Pin 47 | IO β User I/O (bank-dependent) |
| Pin 48 | IO β User I/O (bank-dependent) |
| Pin 49 | IO β User I/O (bank-dependent) |
| Pin 50 | IO β User I/O (bank-dependent) |
| Pin 51 | IO β User I/O (bank-dependent) |
| Pin 52 | IO β User I/O (bank-dependent) |
| Pin 53 | IO β User I/O (bank-dependent) |
| Pin 54 | IO β User I/O (bank-dependent) |
| Pin 55 | IO β User I/O (bank-dependent) |
| Pin 56 | IO β User I/O (bank-dependent) |
| Pin 57 | IO β User I/O (bank-dependent) |
| Pin 58 | IO β User I/O (bank-dependent) |
| Pin 59 | IO β User I/O (bank-dependent) |
| Pin 60 | IO β User I/O (bank-dependent) |
| Pin 61 | IO β User I/O (bank-dependent) |
| Pin 62 | IO β User I/O (bank-dependent) |
| Pin 63 | IO β User I/O (bank-dependent) |
| Pin 64 | IO β User I/O (bank-dependent) |
| Pin 65 | IO β User I/O (bank-dependent) |
| Pin 66 | IO β User I/O (bank-dependent) |
| Pin 67 | IO β User I/O (bank-dependent) |
| Pin 68 | IO β User I/O (bank-dependent) |
| Pin 69 | IO β User I/O (bank-dependent) |
| Pin 70 | IO β User I/O (bank-dependent) |
| Pin 71 | IO β User I/O (bank-dependent) |
| Pin 72 | IO β User I/O (bank-dependent) |
| Pin 73 | IO β User I/O (bank-dependent) |
| Pin 74 | IO β User I/O (bank-dependent) |
| Pin 75 | IO β User I/O (bank-dependent) |
| Pin 76 | IO β User I/O (bank-dependent) |
| Pin 77 | IO β User I/O (bank-dependent) |
| Pin 78 | IO β User I/O (bank-dependent) |
| Pin 79 | IO β User I/O (bank-dependent) |
| Pin 80 | IO β User I/O (bank-dependent) |
| Pin 81 | IO β User I/O (bank-dependent) |
| Pin 82 | IO β User I/O (bank-dependent) |
| Pin 83 | IO β User I/O (bank-dependent) |
| Pin 84 | IO β User I/O (bank-dependent) |
| Pin 85 | IO β User I/O (bank-dependent) |
| Pin 86 | IO β User I/O (bank-dependent) |
| Pin 87 | IO β User I/O (bank-dependent) |
| Pin 88 | IO β User I/O (bank-dependent) |
| Pin 89 | IO β User I/O (bank-dependent) |
| Pin 90 | IO β User I/O (bank-dependent) |
| Pin 91 | IO β User I/O (bank-dependent) |
| Pin 92 | IO β User I/O (bank-dependent) |
| Pin 93 | IO β User I/O (bank-dependent) |
| Pin 94 | IO β User I/O (bank-dependent) |
| Pin 95 | IO β User I/O (bank-dependent) |
| Pin 96 | IO β User I/O (bank-dependent) |
| Pin 97 | IO β User I/O (bank-dependent) |
| Pin 98 | VCC β Core power supply (1.5V) |
| Pin 99 | GND β Ground |
| Pin 100 | VCC β Core power supply (1.5V) |
| Pin 101 | GND β Ground |
| Pin 102 | VCC β Core power supply (1.5V) |
| Pin 103 | GND β Ground |
| Pin 104 | VCC β Core power supply (1.5V) |
| Pin 105 | GND β Ground |
| Pin 106 | VCC β Core power supply (1.5V) |
| Pin 107 | GND β Ground |
| Pin 108 | VCC β Core power supply (1.5V) |
| Pin 109 | GND β Ground |
| Pin 110 | VCC β Core power supply (1.5V) |
| Pin 111 | GND β Ground |
| Pin 112 | VCC β Core power supply (1.5V) |
| Pin 113 | GND β Ground |
| Pin 114 | VCC β Core power supply (1.5V) |
| Pin 115 | GND β Ground |
| Pin 116 | VCC β Core power supply (1.5V) |
| Pin 117 | GND β Ground |
| Pin 118 | VCC β Core power supply (1.5V) |
| Pin 119 | GND β Ground |
| Pin 120 | VCC β Core power supply (1.5V) |
| Pin 121 | GND β Ground |
| Pin 122 | VCC β Core power supply (1.5V) |
| Pin 123 | GND β Ground |
| Pin 124 | VCC β Core power supply (1.5V) |
| Pin 125 | GND β Ground |
| Pin 126 | VCC β Core power supply (1.5V) |
| Pin 127 | GND β Ground |
| Pin 128 | VCC β Core power supply (1.5V) |
| Pin 129 | GND β Ground |
| Pin 130 | VCC β Core power supply (1.5V) |
| Pin 131 | GND β Ground |
| Pin 132 | VCC β Core power supply (1.5V) |
| Pin 133 | GND β Ground |
| Pin 134 | VCC β Core power supply (1.5V) |
| Pin 135 | GND β Ground |
| Pin 136 | VCC β Core power supply (1.5V) |
| Pin 137 | GND β Ground |
| Pin 138 | VCC β Core power supply (1.5V) |
| Pin 139 | GND β Ground |
| Pin 140 | VCC β Core power supply (1.5V) |
| Pin 141 | GND β Ground |
| Pin 142 | VCC β Core power supply (1.5V) |
| Pin 143 | GND β Ground |
| Pin 144 | VCC β Core power 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
A3P1000-2FGG144 is suitable for 6 applications: Industrial Control, Automotive Electronics, Communications Infrastructure, Aerospace and Defense, Medical Electronics, Data Acquisition and Test Equipment.
Industrial Control
The A3P1000-2FGG144 is ideal for industrial control systems such as PLCs, motor control, and factory automation. Its 1 million system gates and 97 I/Os provide ample logic resources for implementing custom control algorithms, communication interfaces, and sensor processing. The flash-based architecture ensures instant-on operation and high reliability in harsh industrial environments, with no external configuration memory required. The 1.5V core voltage and low power consumption make it suitable for power-sensitive applications. Its 310 MHz system performance supports real-time control loops and high-speed data acquisition. The device's security features protect intellectual property from reverse engineering, which is critical in competitive industrial markets.
Recommended
Automotive Electronics
The A3P1000-2FGG144 is used in automotive electronics for applications such as engine control units, infotainment systems, and advanced driver-assistance systems (ADAS). Its flash-based FPGA provides high reliability and immunity to single-event upsets, which is essential for safety-critical automotive functions. The device's 1 million gates and 97 I/Os enable integration of multiple functions like CAN bus interfaces, sensor fusion, and display control. The 1.5V core voltage and low power consumption help meet stringent automotive power budgets. The commercial temperature range (0C to +85C) is suitable for many automotive applications, but for under-hood environments, the industrial temperature variant (A3P1000-2FGG144I) is recommended. The device's instant-on capability ensures immediate operation upon power-up, which is critical for safety systems.
Recommended
Communications Infrastructure
The A3P1000-2FGG144 is well-suited for communications infrastructure including network routers, switches, and base stations. Its 1 million system gates and 97 I/Os allow implementation of protocol processing, packet buffering, and interface bridging. The device supports multiple I/O standards such as LVCMOS, LVTTL, and PCI, enabling direct connection to various communication interfaces. The 310 MHz system performance handles high-speed data paths, while the flash-based architecture provides secure configuration storage, protecting against unauthorized access. The 1.5V core voltage and low power consumption are advantageous for densely populated line cards. The 144-FBGA package's compact footprint saves board space in space-constrained networking equipment. The device's reliability and long-term availability make it suitable for infrastructure deployments with extended lifecycles.
Recommended
Aerospace and Defense
The A3P1000-2FGG144 is used in aerospace and defense systems such as avionics, satellite payloads, and radar processing. Its flash-based FPGA offers high reliability, radiation tolerance, and security against reverse engineering, which are critical for defense applications. The 1 million system gates and 97 I/Os provide sufficient resources for implementing complex signal processing, telemetry, and control functions. The device's instant-on capability ensures immediate operation in mission-critical scenarios. The 1.5V core voltage and low power consumption are essential for power-constrained satellite and UAV platforms. The commercial temperature range may be limiting for some aerospace applications, so the industrial temperature variant (A3P1000-2FGG144I) is often preferred. The device's non-volatile configuration eliminates the need for external boot memory, reducing system complexity and improving reliability.
Recommended
Medical Electronics
The A3P1000-2FGG144 is suitable for medical electronics such as patient monitoring systems, diagnostic imaging, and portable medical devices. Its 1 million system gates and 97 I/Os enable implementation of signal processing, data acquisition, and user interface control. The flash-based architecture provides high reliability and secure configuration, which is important for medical devices that must meet stringent regulatory requirements. The 1.5V core voltage and low power consumption are beneficial for battery-powered portable devices. The device's instant-on capability ensures immediate readiness in critical medical situations. The 144-FBGA package's small footprint is ideal for compact medical devices. The commercial temperature range is typically sufficient for indoor medical environments. The device's long-term availability and reliability make it a trusted choice for medical equipment manufacturers.
Recommended
Data Acquisition and Test Equipment
The A3P1000-2FGG144 is ideal for data acquisition systems and test equipment such as oscilloscopes, logic analyzers, and data loggers. Its 1 million system gates and 97 I/Os allow implementation of high-speed data capture, triggering, and processing logic. The device supports multiple I/O standards, enabling interface with various sensors and ADCs. The 310 MHz system performance handles high-bandwidth data streams, while the flash-based architecture provides secure and reliable configuration. The 1.5V core voltage and low power consumption are advantageous for portable test instruments. The 144-FBGA package's compact size fits well in benchtop and handheld equipment. The device's reprogrammability allows firmware updates and feature enhancements in the field, extending product lifespan. The commercial temperature range is suitable for typical lab environments.
Recommended
Recommended Products Summary
Engineering reference data for A3P1000-2FGG144 β comparison, design guidance, and compliance information.
Selection Guide
Comparison with Alternatives
| Parameter | This Product | A3P1000-2FGG144I | A3P1000-1FGG144T | A3P1000-FG144T | A3P1000-FGG144I | A3P1000-FG144 |
|---|---|---|---|---|---|---|
| Package | 144-FBGA (FGG144) | 144-FBGA (FGG144) - same | 144-FBGA (FGG144) - same | 144-FBGA (FGG144) - same | 144-FBGA (FGG144) - same | 144-FBGA (FGG144) - same |
| Brand | Microchip Technology | Microchip Technology | Microchip Technology | Microchip Technology | Microchip Technology | Microchip Technology |
| System Gates | 1,000,000 | 1,000,000 | 1,000,000 | 1,000,000 | 1,000,000 | 1,000,000 |
| User I/Os | 97 | 97 | 97 | 97 | 97 | 97 |
| Speed Grade | -2 | -2 | -1 | Standard | Standard | Standard |
| Temperature Range | 0C to +85C | -40C to +100C | 0C to +85C | 0C to +85C | -40C to +100C | 0C to +85C |
| Packaging | Tray | Tray | Tape & Reel | Tape & Reel | Tray | Tray |
| Core Voltage | 1.5V | 1.5V | 1.5V | 1.5V | 1.5V | 1.5V |
Key Differentiators
- Flash-based non-volatile configuration (vs SRAM-based FPGAs (e.g., Xilinx Spartan-6))
- 1 million system gates in a 144-FBGA package (vs A3P600-2FGG144)
- Speed grade -2 for higher performance (vs A3P1000-FG144 (standard speed))
Design Notes
The A3P1000-2FGG144 requires a 1.5V core supply and separate I/O bank supplies (VCCIBx). Decouple each supply pin with a 0.1uF ceramic capacitor placed as close to the pin as possible, and add a 10uF bulk capacitor per supply rail. Estimated: For a design with 50% I/O toggling at 100 MHz, core current can reach approximately 150 mA, so ensure the regulator can supply at least 200 mA with margin. Refer to the Microchip ProASIC3 power estimation spreadsheet for accurate calculations.
For the 144-FBGA package, use a 4-layer PCB minimum with dedicated power and ground planes. Route high-speed I/Os with controlled impedance (e.g., 50 ohm single-ended) and keep trace lengths matched for differential pairs. Place decoupling capacitors on the bottom side directly under the FPGA to minimize loop inductance. Follow the layout guidelines in the ProASIC3 FPGA Layout Guidelines application note for optimal signal integrity.
A common pitfall is forgetting to connect all VCC and GND pins, which can cause erratic behavior or damage. Ensure all power pins are connected to the correct voltage levels and that no I/O is left floating unless intended. Also, the flash-based FPGA does not require external configuration, but the JTAG pins must be accessible for programming. Do not apply I/O voltages before the core supply is stable to avoid latch-up.
Compliance Information
Lead-free and RoHS compliant per distributor listings. AEC-Q100 qualification not specified for this part.
