EP2S180F1508C4
EP2S180F1508C4 - 179,400-Cell Stratix II FPGA | Intel
Intel EP2S180F1508C4 is a high-density Stratix II field-programmable gate array featuring 179,400 logic elements or cells, 9,383,040 bits of embedded RAM, 1,170 programmable I/O lines, and a 1.15 V to 1.25 V supply range in a 1,508-ball FC-FBGA package measuring 40 mm by 40 mm. This combination targets complex digital systems that require substantial programmable logic, substantial on-chip memory, and a large number of external interfaces. The part belongs to Intel's Stratix II FPGA family, placing it in the hierarchy of programmable logic device, FPGA, logic IC, semiconductor, and configurable digital processing platform.
An FPGA is a semiconductor integrated circuit whose logic function is defined through programmable configuration rather than fixed interconnect. Unlike a general-purpose processor that executes software instructions, an FPGA can implement parallel datapaths, state machines, interface bridges, and digital-signal-processing functions in configurable hardware. Within an electronic system, an FPGA sits between fixed-function controllers or processors and high-speed peripheral circuitry, providing reconfigurable timing, protocol, and data-processing resources.
The EP2S180F1508C4's primary differentiating resources are its 179,400 logic cells, 9,383,040 RAM bits, and 1,170 I/O pins. The high cell count supports large logic networks, while the embedded memory supports buffering, lookup tables, packet storage, and other data-retention functions. Its 1,170 I/O resources are significant for designs that must connect numerous buses, memory interfaces, control signals, or high-speed parallel links. A published operating-frequency value of 711.24 MHz is available for this family search result, but designers should verify the relevant speed-grade timing conditions before using it as a system-level guarantee.
Stratix II devices use SRAM-based FPGA technology and a 90 nm process, according to the supplied FPGAkey result. The architecture supports hardware parallelism and configuration-defined I/O behavior, which can shorten development cycles for algorithms that map efficiently into combinational and pipelined logic. Because the device is SRAM-based, the system must define how configuration data is loaded and retained during operation, including any applicable configuration memory, controller, boot process, and recovery strategy.
Typical applications include high-throughput communications equipment, industrial inspection and automation systems, and complex test or measurement platforms. In communications equipment, the FPGA can implement protocol conversion, packet processing, and interface aggregation. In industrial systems, it can coordinate multiple sensors, motion-control channels, and machine-vision data streams. In instrumentation, it can provide deterministic capture, trigger, formatting, and transport logic. These applications benefit from parallel processing and the device's large I/O count, although exact memory, clock, transceiver, signaling, and power requirements must be confirmed from the manufacturer datasheet before design freeze.
A key design consideration is that EP2S180F1508C4 is a high-pin-count BGA device, not a simple through-hole or small surface-mount FPGA. PCB planning must accommodate the 40 mm by 40 mm package, controlled impedance for high-speed signals, adequate power distribution, and verified BGA assembly capability. Firmware and board design teams should also confirm configuration support, available development tools, pin assignments, and migration implications before selecting a replacement.
This page combines the supplied manufacturer and distributor information with package-aware drop-in references, application context, and explicit markers for unverified electrical details. The result is a practical engineering summary for sourcing, feasibility review, and legacy-system maintenance without presenting missing specifications as confirmed facts.
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