EP4CE10F17I8L - Cyclone IV E FPGA, 256-LBGA | Altera
MPN: EP4CE10F17I8L ✓ ActiveEP4CE10F17I8L Overview
A field-programmable gate array is a semiconductor device whose digital functions are configured after manufacture using a programmable logic array. In the broader device hierarchy, an FPGA is a programmable semiconductor, a form of logic IC, and a practical alternative to a custom ASIC when design requirements change or production volumes are moderate. Its configuration memory allows logic, control, interface, and signal-processing functions to be updated without replacing the physical component.
The EP4CE10F17I8L is packaged in a 256-LBGA configuration suitable for compact board layouts with fine-pitch interconnects. The I8 ordering suffix identifies an industrial-oriented variant, while the F17 designation identifies the device speed and package-related ordering configuration. Exact logic-element count, embedded-memory capacity, I/O count, supply-voltage values, operating-temperature limits, and performance timing should be confirmed in the Cyclone IV E device handbook and the EP4CE10F17I8L product documentation before release to production.
Typical uses include industrial control and monitoring, serial-interface bridging, general-purpose data acquisition, embedded communication equipment, video and image processing, and custom accelerator logic. The same physical package used by the F17 device family makes careful footprint and pin-assignment review essential when comparing different ordering codes.
For a new design, treat the ordering code, package ball map, voltage requirements, configuration method, and memory initialization behavior as a matched set. Confirm the exact pin assignments for every used ball against the manufacturer pin-connection table, and verify that the power rails, decoupling network, configuration interface, clocking, and I/O standards satisfy the board-level design.
This product record combines the exact manufacturer ordering identity, package information, distributor listing references, and application-oriented engineering guidance. It emphasizes the checks that matter during schematic capture, PCB layout, programming, and sourcing so that the FPGA is selected and integrated as a complete system component rather than by family name alone.
Drop-in alternatives for EP4CE10F17I8L — same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.
Variants in this series
Same-series models that are drop-in compatible with EP4CE10F17I8L (same form factor and footprint) — differing in Core Voltage (VCCINT), Embedded Memory, Embedded Multipliers (18x18), Mounting Type, Operating Temperature.
EP4CE10F17C8N
✅ Drop-InContact for price
View Datasheet →EP4CE6F17C9LN
✅ Drop-InContact for price
View Datasheet →EP4CE10F17I8L Maximum Ratings & Electrical Characteristics
| Device Type | Cyclone IV E field-programmable gate array (FPGA) |
| Family | Cyclone IV E |
| Ordering Part Number | EP4CE10F17I8L |
| Package Type | 256-LBGA |
| Mounting Type | Surface mount |
EP4CE10F17I8L 256-lbga Pin Configuration Guide
Pin configuration for EP4CE10F17I8L (256-lbga package). This digital IC includes GPIO, communication interfaces (UART, SPI, I2C), and power pins. Refer to the manufacturer datasheet for alternate pin functions and configuration options. Essential for embedded system design and PCB layout.
No detailed pinout data available for EP4CE10F17I8L.
Refer to the datasheet for full pin configuration.
Typical Applications
EP4CE10F17I8L is suitable for 6 applications: Industrial Control and Monitoring, Serial Communication Bridge, Data Acquisition and Signal Processing, Embedded Communication Equipment, Video and Image Processing, Custom Accelerator Logic.
Industrial Control and Monitoring
The EP4CE10F17I8L is suitable for consolidating sequencing logic, interlock handling, counter functions, alarm processing, and communication tasks into a configurable control platform. Programmable logic lets engineers revise timing relationships or add diagnostic paths without changing a fixed controller. The 256-LBGA package also supports compact controller boards where connector density and routing space are important. Before schematic release, verify the exact I/O count, supported voltage standards, clocking resources, and industrial temperature limits for EP4CE10F17I8L. The final design should include deterministic reset behavior, configuration handling, watchdog logic, and fault-safe output states. This device is most appropriate when the control architecture benefits from hardware timing or parallel interface logic that would otherwise require several supporting components.
Recommended
Serial Communication Bridge
The EP4CE10F17I8L can implement protocol conversion, data framing, FIFO control, and clock-domain crossing between serial interfaces. Such a bridge is useful when legacy equipment uses an interface incompatible with a host processor. The FPGA architecture allows the data path and state machine to be updated as protocols change, while the 256-LBGA package supports a compact interface-processing module. Design engineers should verify the exact pin assignments, I/O voltage requirements, supported transceiver standards, maximum interface rates, and timing margins for the selected Cyclone IV E device. A practical implementation uses dedicated clocking resources, registered I/O paths, constrained timing, and a documented reset sequence so that data is not released until both sides of the bridge are operational.
Recommended
Data Acquisition and Signal Processing
The EP4CE10F17I8L is appropriate for deterministic acquisition pipelines, digital filtering, trigger control, sample buffering, and data-format conversion. Parallel sensors or converters can feed programmable logic that handles clock qualification, filtering, and transfer to a processor. Using FPGA resources allows the sampling path to evolve independently of the main embedded software. Before committing to a design, confirm the available logic elements, block RAM, DSP blocks, I/O count, clock inputs, and pin-connection details for the exact ordering code. Designers should also account for input and output timing, metastability protection, calibration tables, and data-valid handshakes. Clock-domain crossings must be implemented with the device's recommended synchronizer methods, and acquisition tests should cover worst-case input timing and temperature corners.
Recommended
Embedded Communication Equipment
The EP4CE10F17I8L can implement packetization, flow control, line termination, test patterns, and custom backplane interfaces in embedded communication products. Its reprogrammable nature is valuable when a platform shares one hardware design across several protocols or customer configurations. The 256-LBGA form factor permits integration close to high-speed interface circuitry while reducing board area relative to a larger programmable-logic package. Engineers must confirm the exact pin map, supported I/O standards, configuration method, clock resources, and timing performance before assigning interfaces. A robust design should reserve dedicated configuration pins, define power-up behavior, validate configuration data, and provide an external clock or reset path where required. Firmware and bitstream release procedures should be treated as controlled product assets.
Recommended
Video and Image Processing
The EP4CE10F17I8L can be evaluated for pixel transport, color processing, timing generation, test-pattern insertion, and other parallel video functions. Parallel programmable logic is attractive when a system requires deterministic timing and a compact hardware pipeline between a sensor, display, or image-processing block. The available design space depends on the exact resource count of EP4CE10F17I8L, so engineers should compare logic, memory, DSP, and I/O utilization before implementation. Pin assignment must follow the manufacturer's package tables because BGA routing requires careful escape-path planning. The video pipeline should include stable synchronization, overflow indicators, deterministic latency, and fault recovery. Signal-integrity checks should cover edge rates, termination, impedance, layer transitions, and synchronization of related clock and data signals.
Recommended
Custom Accelerator Logic
The EP4CE10F17I8L is useful for custom hardware accelerators that perform fixed-rate operations alongside a host processor. Examples include filtering, packet inspection, checksum generation, compression preprocessing, or specialized control sequences. Placing these functions in programmable logic reduces processor load while retaining the ability to update algorithms through a new configuration image. Resource planning should use the exact EP4CE10 device capabilities and include utilization headroom for control logic, memories, clocking, and debugging. The physical design should separate sensitive or high-speed routing from switching outputs, provide multiple stable power rails as required, and use the manufacturer-recommended decoupling and layout patterns. Timing constraints should include all clock domains, and the build process should preserve reproducible bitstreams and clear rollback procedures for deployed equipment.
Recommended
Recommended Products Summary
Engineering reference data for EP4CE10F17I8L — comparison, design guidance, and compliance information.
Selection Guide
Comparison with Alternatives
| Parameter | This Product | EP4CE10F17C8 | EP4CE6F17C9LN |
|---|---|---|---|
| Brand | Altera | Altera | Altera |
| FPGA Family | Cyclone IV E | Cyclone IV E | Cyclone IV E |
| Device Series | EP4CE10 | EP4CE10 | EP4CE6 |
| Ordering Suffix | F17I8L | F17C8 | F17C9LN |
Key Differentiators
- Exact EP4CE10-family resource target (vs EP4CE6F17C9LN)
- Industrial-oriented ordering identity (vs EP4CE10F17C8)
- Compact 256-LBGA integration (vs EP4CE10F17C8)
Design Notes
Treat the 256-LBGA layout as a constrained routing problem. Assign every power, ground, configuration, clock, and user I/O ball from the exact EP4CE10F17I8L pin-connection table, then verify the selected BGA land pattern and mask layers against Altera packaging guidance. Shorten high-speed clock routes, provide continuous reference planes where appropriate, and avoid breaking return paths beneath switching I/O.
Follow the manufacturer's recommended power-supply topology and decoupling arrangement for the Cyclone IV E family. Separate core and I/O rail distribution where the device supports distinct supplies, connect all designated ground balls, and keep switching-regulator layout away from sensitive clock and configuration routes. Validate startup current, rail sequencing, and tolerance against the exact electrical limits before releasing power to the board.
Do not approve an ordering-code substitution solely because the EP4CE number matches. Decode every suffix against the manufacturer ordering table and compare package, speed, temperature, and qualification attributes. In particular, EP4CE10F17C8 and EP4CE6F17C9LN require package and resource verification before they can be treated as board-compatible alternatives to EP4CE10F17I8L.
Constrain all interface paths with explicit clock, input, output, and false-path requirements. Use dedicated clock resources for internal frequency generation, apply registered I/O where the design plan calls for it, and synchronize asynchronous control signals before use in sequential logic. Review skew, fanout, and margin for the fastest supported interface rather than relying only on nominal timing reports.
Plan the configuration path as part of the board layout rather than as an afterthought. Keep configuration pins and their supporting signals away from aggressive switching nodes, provide the required pull components exactly where the pin table specifies them, and check every configuration interface for signal integrity. Validate cold-start, warm-restart, and configuration-failure behavior before production release.
Compliance Information
Compliance attributes require confirmation from the exact manufacturer product documentation or material declaration for EP4CE10F17I8L.
