EP4CGX75CF23C8N
EP4CGX75CF23C8N - 73,920-Cell FPGA | Intel | Embedded
Intel EP4CGX75CF23C8N is a Cyclone IV GX field-programmable gate array with 73,920 logic cells, 290 I/O, and a 1.2 V core supply, housed in a 484-pin fine-pitch ball grid array package. The verified product listing describes 4,257,792 bits of embedded memory and identifies the device as a programmable-logic IC built using 60 nm technology. It belongs to the Cyclone IV GX family, combining general-purpose FPGA fabric with application-oriented programmable resources for embedded processing, communications, and custom digital hardware.
A field-programmable gate array is a semiconductor device whose logic functions are configured after manufacturing. In the system hierarchy, an FPGA sits between fixed-function application-specific integrated circuits and software-driven processors: it provides hardware-timed parallel processing while remaining reconfigurable. The Cyclone IV GX family extends this programmable-logic foundation with resources intended for interface, signal-processing, and control functions. This combination allows designers to consolidate glue logic, protocol handling, state machines, and accelerators into one programmable device.
The principal verified characteristics are 73,920 cells, 290 user I/O, 4,257,792 memory bits, and a 484-ball FBGA package. The 290-I/O count provides a substantial connection boundary for parallel buses, memory interfaces, control signals, and communications peripherals. The reported 4,257,792-bit embedded-memory capacity supports data buffering, lookup tables, packet storage, and other moderate-size on-chip functions without consuming all logic resources. The 60 nm process designation and 1.2 V supply place the device in a low-voltage, mature FPGA architecture.
From an architectural perspective, the programmable fabric can implement concurrent datapaths and control logic directly in hardware. Unlike a processor that executes instructions sequentially, an FPGA can sustain multiple operations in parallel, making it useful for deterministic interface bridging and acceleration. Designers map a design into logic elements, route signals through programmable interconnects, and configure dedicated on-chip memory and I/O behavior. Configuration data therefore determines the final digital function while preserving the flexibility to revise the implementation.
Typical applications include industrial automation controllers, communications equipment, real-time signal processing, and custom hardware acceleration. In industrial systems, the device can consolidate machine-control state machines, sensor interfaces, and communication bridges. In communications equipment, its parallel fabric can handle protocol conversion and packet-oriented logic. For signal processing, the same architecture supports high-speed fixed-function datapaths, while the embedded memory can hold coefficients or sample buffers.
Design-in work must verify the exact ball map, supported I/O standards, transceiver capabilities, configuration interface, clocking resources, power rails, thermal limits, and speed-grade implications from the manufacturer documentation before release. PCB planning should accommodate all 484 balls, controlled-impedance connections where appropriate, decoupling near supply entry points, and rigorous signal-integrity review. The available verified data does not provide a complete electrical limit table or pin assignment.
This page combines the verified ordering, logic, memory, I/O, process, supply, and package information with a conservative engineering review. Because the alternative search did not identify a verified same-footprint cross-brand drop-in replacement, no unverified equivalent is presented. That distinction protects procurement and PCB decisions from confusing a functional FPGA alternative with a true drop-in part.
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