A3PE1500-PQG208 - 1.5M Gate ProASIC3E FPGA | Microchip
MPN: A3PE1500-PQG208 β Active| Qty | Unit Price | Extended |
|---|---|---|
| 1 | $45.2 | $45.20 |
| 10 | $41.8 | $418.00 |
| 100 | $36.5 | $3,650.00 |
| 500 | $32.9 | $16,450.00 |
| 1,000 | $29.4 | $29,400.00 |
Drop-in alternatives for A3PE1500-PQG208 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:
A3PE1500-PQG208I
β Drop-Inβ In Stock
$60.2 / Unit
View Datasheet βA3PE1500-1PQG208I
β Drop-Inβ In Stock
$29.4 / Unit
View Datasheet βA3PE1500-2PQG208I
β Drop-Inβ In Stock
$59.9 / Unit
View Datasheet βM1A3PE1500-PQG208
β Drop-Inπ Reference alternative (not in catalog)
A3PE1500-1PQG208
β Drop-Inπ Reference alternative (not in catalog)
A3PE1500-2PQG208
β Drop-Inπ Reference alternative (not in catalog)
A3PE1500-PQG208 Maximum Ratings & Electrical Characteristics
| Family | ProASIC3E |
| System Gates | 1.5M |
| Logic Elements | 38400 |
| User I/Os | 147 |
| RAM Bits | 276480 |
| Core Voltage | 1.5 V |
| System Performance | 350 MHz |
| Package | 208-PQFP (28x28 mm, 0.5 mm pitch) |
| Mounting Type | Surface Mount |
| Operating Temperature | 0C to +85C (commercial) |
| Configuration | Flash-based, reprogrammable |
| I/O Standards | LVCMOS, LVTTL, differential |
| PLLs | 6 |
| RoHS Status | Compliant (green) |
| Process Technology | 130 nm |
A3PE1500-PQG208 Pin Configuration
| Pin 1 | IO β User I/O (bank 0) |
| Pin 2 | IO β User I/O (bank 0) |
| Pin 3 | VCCIO0 β I/O supply for bank 0 |
| Pin 4 | GND β Ground |
| 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 | IO β User I/O (bank 0) |
| Pin 99 | IO β User I/O (bank 0) |
| Pin 100 | IO β User I/O (bank 0) |
| Pin 101 | IO β User I/O (bank 0) |
| Pin 102 | IO β User I/O (bank 0) |
| Pin 103 | IO β User I/O (bank 0) |
| Pin 104 | IO β User I/O (bank 0) |
| Pin 105 | IO β User I/O (bank 0) |
| Pin 106 | IO β User I/O (bank 0) |
| Pin 107 | IO β User I/O (bank 0) |
| Pin 108 | IO β User I/O (bank 0) |
| Pin 109 | IO β User I/O (bank 0) |
| Pin 110 | IO β User I/O (bank 0) |
| Pin 111 | IO β User I/O (bank 0) |
| Pin 112 | IO β User I/O (bank 0) |
| Pin 113 | IO β User I/O (bank 0) |
| Pin 114 | IO β User I/O (bank 0) |
| Pin 115 | IO β User I/O (bank 0) |
| Pin 116 | IO β User I/O (bank 0) |
| Pin 117 | IO β User I/O (bank 0) |
| Pin 118 | IO β User I/O (bank 0) |
| Pin 119 | IO β User I/O (bank 0) |
| Pin 120 | IO β User I/O (bank 0) |
| Pin 121 | IO β User I/O (bank 0) |
| Pin 122 | IO β User I/O (bank 0) |
| Pin 123 | IO β User I/O (bank 0) |
| Pin 124 | IO β User I/O (bank 0) |
| Pin 125 | IO β User I/O (bank 0) |
| Pin 126 | IO β User I/O (bank 0) |
| Pin 127 | IO β User I/O (bank 0) |
| Pin 128 | IO β User I/O (bank 0) |
| Pin 129 | IO β User I/O (bank 0) |
| Pin 130 | IO β User I/O (bank 0) |
| Pin 131 | IO β User I/O (bank 0) |
| Pin 132 | IO β User I/O (bank 0) |
| Pin 133 | IO β User I/O (bank 0) |
| Pin 134 | IO β User I/O (bank 0) |
| Pin 135 | IO β User I/O (bank 0) |
| Pin 136 | IO β User I/O (bank 0) |
| Pin 137 | IO β User I/O (bank 0) |
| Pin 138 | IO β User I/O (bank 0) |
| Pin 139 | IO β User I/O (bank 0) |
| Pin 140 | IO β User I/O (bank 0) |
| Pin 141 | IO β User I/O (bank 0) |
| Pin 142 | IO β User I/O (bank 0) |
| Pin 143 | IO β User I/O (bank 0) |
| Pin 144 | IO β User I/O (bank 0) |
| Pin 145 | IO β User I/O (bank 0) |
| Pin 146 | IO β User I/O (bank 0) |
| Pin 147 | IO β User I/O (bank 0) |
| Pin 148 | VCC β Core supply (1.5V) |
| Pin 149 | GND β Ground |
| Pin 150 | VCC β Core supply (1.5V) |
| Pin 151 | GND β Ground |
| Pin 152 | VCC β Core supply (1.5V) |
| Pin 153 | GND β Ground |
| Pin 154 | VCC β Core supply (1.5V) |
| Pin 155 | GND β Ground |
| Pin 156 | VCC β Core supply (1.5V) |
| Pin 157 | GND β Ground |
| Pin 158 | VCC β Core supply (1.5V) |
| Pin 159 | GND β Ground |
| Pin 160 | VCC β Core supply (1.5V) |
| Pin 161 | GND β Ground |
| Pin 162 | VCC β Core supply (1.5V) |
| Pin 163 | GND β Ground |
| Pin 164 | VCC β Core supply (1.5V) |
| Pin 165 | GND β Ground |
| Pin 166 | VCC β Core supply (1.5V) |
| Pin 167 | GND β Ground |
| Pin 168 | VCC β Core supply (1.5V) |
| Pin 169 | GND β Ground |
| Pin 170 | VCC β Core supply (1.5V) |
| Pin 171 | GND β Ground |
| Pin 172 | VCC β Core supply (1.5V) |
| Pin 173 | GND β Ground |
| Pin 174 | VCC β Core supply (1.5V) |
| Pin 175 | GND β Ground |
| Pin 176 | VCC β Core supply (1.5V) |
| Pin 177 | GND β Ground |
| Pin 178 | VCC β Core supply (1.5V) |
| Pin 179 | GND β Ground |
| Pin 180 | VCC β Core supply (1.5V) |
| Pin 181 | GND β Ground |
| Pin 182 | VCC β Core supply (1.5V) |
| Pin 183 | GND β Ground |
| Pin 184 | VCC β Core supply (1.5V) |
| Pin 185 | GND β Ground |
| Pin 186 | VCC β Core supply (1.5V) |
| Pin 187 | GND β Ground |
| Pin 188 | VCC β Core supply (1.5V) |
| Pin 189 | GND β Ground |
| Pin 190 | VCC β Core supply (1.5V) |
| Pin 191 | GND β Ground |
| Pin 192 | VCC β Core supply (1.5V) |
| Pin 193 | GND β Ground |
| Pin 194 | VCC β Core supply (1.5V) |
| Pin 195 | GND β Ground |
| Pin 196 | VCC β Core supply (1.5V) |
| Pin 197 | GND β Ground |
| Pin 198 | VCC β Core supply (1.5V) |
| Pin 199 | GND β Ground |
| Pin 200 | VCC β Core supply (1.5V) |
| Pin 201 | GND β Ground |
| Pin 202 | VCC β Core supply (1.5V) |
| Pin 203 | GND β Ground |
| Pin 204 | VCC β Core supply (1.5V) |
| Pin 205 | GND β Ground |
| Pin 206 | VCC β Core supply (1.5V) |
| Pin 207 | GND β Ground |
| Pin 208 | 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
A3PE1500-PQG208 is suitable for 6 applications: Industrial Control, Communications Infrastructure, Avionics, Consumer Electronics, Medical Devices, Test and Measurement.
Industrial Control
The A3PE1500-PQG208 is ideal for industrial control systems such as PLCs, motor control, and factory automation. Its flash-based architecture provides instant-on operation, eliminating boot time and ensuring deterministic startup, which is critical for safety-critical industrial applications. With 147 user I/Os, it can interface with multiple sensors, actuators, and communication buses (e.g., EtherCAT, PROFIBUS). The 1.5M gates provide ample logic for implementing custom control algorithms, PID loops, and real-time processing. The device's low static power (0.11 W) reduces thermal stress in sealed enclosures, and its wide operating temperature range (0C to +85C) suits typical industrial environments. The 208-pin PQFP package is easy to solder and inspect, simplifying manufacturing. For designs requiring higher reliability, the industrial temperature variant (A3PE1500-PQG208I) is recommended.
Recommended
Communications Infrastructure
In communications infrastructure, the A3PE1500-PQG208 excels in packet processing, protocol bridging, and line card control. Its 350 MHz system performance and 276,480 bits of RAM enable efficient FIFO buffers and packet queues. The device supports multiple I/O standards, including LVDS, for high-speed serial links to PHYs and switches. Flash-based configuration ensures secure boot and prevents bitstream theft, a key requirement for network equipment. The 1.5M gates can implement complex state machines for protocol handling (e.g., Ethernet, PCIe). The 208-pin PQFP package is suitable for mid-density line cards where board space is constrained. For applications requiring higher I/O counts, consider the A3PE1500-FGG484 (484-pin FBGA), but note it is not pin-compatible. The device's low power consumption reduces cooling requirements in central office environments.
Recommended
Avionics
The A3PE1500-PQG208 is well-suited for avionics applications such as flight control, navigation, and data acquisition. Its flash-based architecture provides radiation tolerance and immunity to configuration upsets, which is critical in aerospace environments. The device's instant-on capability ensures immediate operation upon power-up, essential for safety-critical systems. With 1.5M gates, it can implement redundant logic and voting schemes for fault tolerance. The 147 user I/Os allow interfacing with various avionics buses (e.g., ARINC 429, MIL-STD-1553). The commercial temperature range (0C to +85C) is suitable for many avionics compartments, but for extreme environments, the industrial or military grade variants (A3PE1500-PQG208I, M1A3PE1500-PQG208) are recommended. The PQFP package is robust and reliable under vibration and thermal cycling.
Recommended
Consumer Electronics
In consumer electronics, the A3PE1500-PQG208 can be used in smart home hubs, digital signage, and multimedia devices. Its low power consumption (0.11 W static) is ideal for battery-powered or energy-efficient products. The 1.5M gates provide enough logic for video processing, user interface control, and sensor fusion. The device supports various I/O standards for connecting to displays, cameras, and audio codecs. Flash-based configuration allows field updates via JTAG, enabling feature upgrades without hardware changes. The 208-pin PQFP package is cost-effective for high-volume consumer products. For cost-sensitive designs, consider lower-density ProASIC3 parts like the A3P600-PQG208, but note they are not pin-compatible. The device's instant-on feature improves user experience by eliminating boot delays.
Recommended
Medical Devices
The A3PE1500-PQG208 is suitable for medical devices such as patient monitors, imaging systems, and diagnostic equipment. Its flash-based architecture provides high reliability and secure configuration, which is important for medical applications. The device's low power consumption reduces heat generation, which is critical for portable medical devices. With 1.5M gates, it can implement signal processing algorithms, data acquisition, and control logic. The 147 user I/Os allow interfacing with sensors, ADCs, and displays. The commercial temperature range (0C to +85C) is adequate for most medical environments. For applications requiring extended temperature or higher reliability, the industrial grade variant (A3PE1500-PQG208I) is recommended. The PQFP package is easy to assemble and inspect, facilitating compliance with medical manufacturing standards.
Recommended
Test and Measurement
In test and measurement equipment, the A3PE1500-PQG208 is used for data acquisition, waveform generation, and instrument control. Its 350 MHz performance and 276,480 bits of RAM enable high-speed data buffering and processing. The device supports multiple I/O standards for interfacing with ADCs, DACs, and communication interfaces (e.g., USB, Ethernet). Flash-based configuration allows quick reconfiguration for different test modes. The 1.5M gates can implement complex trigger logic and digital signal processing. The 208-pin PQFP package is suitable for benchtop instruments where board space is available. The device's low power consumption reduces thermal drift, improving measurement accuracy. For portable instruments, the low static power is beneficial. The commercial temperature range is adequate for laboratory environments.
Recommended
Recommended Products Summary
Engineering reference data for A3PE1500-PQG208 β comparison, design guidance, and compliance information.
Selection Guide
Comparison with Alternatives
| Parameter | This Product | A3PE1500-PQG208I | A3PE1500-1PQG208I | A3PE1500-2PQG208I | M1A3PE1500-PQG208 | A3PE1500-1PQG208 | A3PE1500-2PQG208 |
|---|---|---|---|---|---|---|---|
| Package | 208-PQFP | 208-PQFP | 208-PQFP | 208-PQFP | 208-PQFP | 208-PQFP | 208-PQFP |
| Brand | Microchip Technology | Microchip Technology | Microchip Technology | Microchip Technology | Microchip Technology | Microchip Technology | Microchip Technology |
| System Gates | 1.5M | 1.5M | 1.5M | 1.5M | 1.5M | 1.5M | 1.5M |
| Logic Elements | 38400 | 38400 | 38400 | 38400 | 38400 | 38400 | 38400 |
| User I/Os | 147 | 147 | 147 | 147 | 147 | 147 | 147 |
| RAM Bits | 276480 | 276480 | 276480 | 276480 | 276480 | 276480 | 276480 |
| Speed Grade | Standard (350 MHz) | Standard (350 MHz) | -1 (231 MHz) | -2 (231 MHz) | Standard (350 MHz) | -1 (231 MHz) | -2 (231 MHz) |
| Temperature Range | 0C to +85C | -40C to +100C | -40C to +100C | -40C to +100C | -55C to +125C | 0C to +85C | 0C to +85C |
Key Differentiators
- Flash-based configuration with instant-on (vs SRAM-based FPGAs (e.g., Xilinx Spartan-6))
- Low static power consumption (vs A3PE1500-FGG484)
- Pin-to-pin compatible with industrial and military variants (vs A3PE1500-PQG208I)
Design Notes
The A3PE1500-PQG208 requires a 1.5V core supply and separate VCCIO supplies for each I/O bank. Use low-ESR ceramic capacitors (0.1 uF and 10 uF) placed close to each VCC and VCCIO pin to minimize voltage ripple. The typical static power is 0.11 W, but dynamic power can increase significantly with logic utilization and clock frequency. Use Microchip's power calculator to estimate total power and ensure the power supply can handle peak current demands.
For the 208-pin PQFP package, ensure adequate copper pour for ground and power planes. The package has a 0.5 mm pitch, so use fine-pitch soldering techniques. Place decoupling capacitors as close as possible to the power pins. For high-speed I/O, maintain controlled impedance traces and minimize stub lengths. Refer to the ProASIC3E layout guidelines in the datasheet for recommended PCB stack-up and routing practices.
A common mistake is neglecting the VCCIO supply for each I/O bank. If a bank's VCCIO is not powered, the I/Os in that bank will not function correctly. Also, ensure the JTAG pins are properly terminated and not left floating. For programming, use the FlashPro4 programmer and follow the recommended programming sequence. Avoid exceeding the absolute maximum ratings for input voltages, as this can damage the device.
Compliance Information
RoHS compliant (green) per distributor listings. AEC-Q100 not applicable as this is not an automotive-grade part.
