EP2AGX65DF29C3N
EP2AGX65DF29C3N - 65K Arria II GX FPGA | Altera | Embedded Systems
Altera EP2AGX65DF29C3N is a 65 nm Arria II GX field-programmable gate array (FPGA) with 60,214 logic elements, 602,214 embedded memory bits, and 364 user I/O pins, supplied in a 572-pin FBGA package. The verified result identifies the part as an Arria II GX programmable-logic device, making it suitable for configurable digital logic, high-speed interfacing, and embedded processing systems. Its package designation DF29 corresponds to the 572-ball FBGA land pattern shown in the available device-family documentation.
An FPGA is a semiconductor integrated circuit containing configurable logic blocks, programmable routing, embedded memory, and I/O resources. Unlike an application-specific integrated circuit, an FPGA can be configured after manufacturing to implement digital circuits, interfaces, or processing pipelines. Within the component hierarchy, EP2AGX65DF29C3N is an FPGA, a programmable logic device, a digital integrated circuit, and ultimately a semiconductor. The architecture allows a board designer to update logic behavior without changing the silicon, while also providing many parallel I/O connections for system-level integration.
The principal verified capacity figures are 60,214 logic elements, 602,214 embedded memory bits, 364 user I/O pins, and a 572-pin FBGA package. These resources support datapaths, control logic, communications bridges, and memory-centric functions. The high pin count also makes package escape routing, power integrity, signal integrity, and ball assignment central parts of the board design. The available data does not verify logic-array dimensions, transceiver count, transceiver data rate, operating temperature, core voltage, or speed-grade timing values.
EP2AGX65DF29C3N belongs to the Arria II GX family, which is associated with integrated high-speed transceiver capability. However, the supplied search data does not provide a defensible transceiver count or maximum transceiver rate, so those values remain unstated rather than inferred from the family name. Design work should use the device handbook and pinout tables to confirm every ball function, bank voltage, configuration interface, power rail, differential-pair rule, and recommended decoupling network. Firmware and bitstream generation should likewise use the matching Altera toolchain and device support files.
Typical applications include communications equipment, industrial control, test and measurement, image processing, and embedded data acquisition. Its programmable architecture is useful when interfaces must be adapted between sensors, converters, processors, memory devices, and backplanes. The 364 user I/O pins can support many parallel connections, while the 602,214 embedded memory bits provide distributed storage for buffering and state. Board-level performance will depend on the selected configuration, clock resources, I/O bank settings, routing, and power implementation.
A key design consideration is complete package-level validation before release. Engineers should use the manufacturer’s 572-ball ball-map documentation rather than relying on a simplified symbol, preserve required power-plane continuity, and follow the recommended decoupling and high-speed layout guidance. Because the verified data does not include detailed timing, electrical, thermal, or absolute-maximum specifications, those parameters require confirmation from the official datasheet before schematic or PCB sign-off. This page combines verified search results, structured capacity fields, sourcing context, and practical design cautions; it does not infer undocumented specifications.
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