EP4CE10F17I7N - 10,320 Logic Element Industrial Cyclone IV E FPGA
MPN: EP4CE10F17I7N ✓ ActiveEP4CE10F17I7N Overview
A field-programmable gate array is a reconfigurable digital semiconductor that belongs to the programmable-logic device hierarchy alongside CPLDs. Its configurable logic blocks, memory resources, and programmable I/O allow engineers to implement digital control, signal processing, interface bridging, and protocol-conversion functions in one integrated circuit. Unlike a fixed-function application-specific integrated circuit, an FPGA can be reconfigured during development and often throughout field operation.
The EP4CE10F17I7N combines 10,320 logic elements with 179 I/O, providing a compact platform for control logic, industrial communications, data acquisition, and embedded system interfacing. Its 414 Kb of block RAM supports buffering, packet storage, and data-retention functions without requiring an external memory device for many designs. The 256-LBGA F17 package supports dense board routing while requiring careful escape-routing and thermal-analysis practices.
The “F17” portion identifies the 17 mm × 17 mm package option, while “I7” identifies the industrial-temperature and speed-grade ordering option documented for this variant. The trailing “N” is an ordering suffix associated with the exact EP4CE10F17I7N configuration. Engineers should use the manufacturer’s ordering-information table to confirm every package, temperature, and speed-grade suffix before substituting a variant.
Typical uses include industrial control modules, programmable I/O systems, communications gateways, test equipment, and embedded instrumentation. For these applications, the combination of 10,320 logic elements, 414 Kb of block RAM, and 179 I/O allows multiple digital functions to be consolidated on a compact PCB. Designs must still account for the exact I/O standards, supported interfaces, clocking resources, and power requirements listed for the selected device in the manufacturer documentation.
PCB implementation requires continuous routing from the 256-LBGA footprint, short return paths for supply and ground planes, and placement of decoupling capacitors close to the power balls. Because the industrial junction-temperature range reaches 100 °C, thermal verification should include worst-case ambient temperature, activity factor, power consumption, and PCB copper conditions.
This product page combines the exact ordering-part-number characteristics with practical FPGA design guidance, documented drop-in family candidates, and design trade-offs. The comparison and application guidance help engineers determine whether the EP4CE10F17I7N fits the required logic density, memory capacity, I/O count, package, and thermal environment without overlooking device-specific constraints.
Drop-in alternatives for EP4CE10F17I7N — 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 EP4CE10F17I7N (same form factor and footprint) — differing in Operating Temperature, Package, Package Dimensions, Process Technology, Device Type.
EP4CE10F17I7
✅ Drop-InContact for price
View Datasheet →EP4CE10F17C8N
✅ Drop-InContact for price
View Datasheet →EP4CE10F17C9LN
✅ Drop-In📋 Reference alternative (not in catalog)
EP4CE10F17I7N Maximum Ratings & Electrical Characteristics
| Device Type | Cyclone IV E field-programmable gate array (FPGA) |
| Logic Elements | 10,320 elements |
| Block RAM | 414 Kb |
| I/O Count | 179 I/O |
| Package | 256-LBGA F17 |
| Package Dimensions | 17 mm × 17 mm |
| Speed Grade | Grade 7 |
| Temperature Grade | Industrial |
| Junction Temperature Range | -40 °C to 100 °C |
| Mounting Type | Surface mount |
| Logic Family | Cyclone IV E |
| Number of Logic Elements | 10,320 elements |
| Embedded Memory Capacity | 414 Kb |
| Maximum I/O | 179 I/O |
| Ordering Part Number | EP4CE10F17I7N |
EP4CE10F17I7N 17 mm × 17 mm Pin Configuration Guide
Pin configuration for EP4CE10F17I7N (17 mm × 17 mm 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 EP4CE10F17I7N.
Refer to the datasheet for full pin configuration.
Typical Applications
EP4CE10F17I7N is suitable for 6 applications: Industrial Control Logic, Programmable Communications Gateway, Data Acquisition and Signal Conditioning, Programmable I/O and Test Equipment, Embedded Instrumentation, Industrial Networking and Sensor Nodes.
Industrial Control Logic
The EP4CE10F17I7N suits industrial control modules that combine sequencing, interlocks, diagnostics, and peripheral coordination in one programmable device. Its 10,320 logic elements are useful for parallel control paths and finite-state machines, while 414 Kb of block RAM can buffer commands or diagnostic records. The 179 I/O provide connections to sensors, actuators, isolation circuits, and local transceivers. In a 256-LBGA F17 implementation, engineers should use continuous power and ground planes, controlled-length escape routing, and validate the industrial junction-temperature range of -40 °C to 100 °C under worst-case activity and ambient conditions.
Recommended
Programmable Communications Gateway
EP4CE10F17I7N can implement protocol conversion, packet framing, buffering, and interface arbitration in a compact communications gateway. The 414 Kb of block RAM provides local storage for short frames, FIFOs, and timing compensation, while 10,320 logic elements support parallel-to-serial logic, CRC processing, and command handling. Its 179 I/O can connect to external transceivers through appropriately selected I/O standards. Timing closure depends on the selected clocking resources and external transceiver characteristics. Board construction should minimize simultaneous-switching noise, provide continuous return paths, and reserve decoupling close to the FPGA power balls.
Recommended
Data Acquisition and Signal Conditioning
The EP4CE10F17I7N is applicable to digital portions of data-acquisition systems that require parallel sampling, trigger sequencing, filtering, and local data handling. Its 10,320 logic elements can implement acquisition state machines and digital signal-processing pipelines, while 414 Kb of block RAM can stage samples between an external converter and a communications interface. The 179 I/O support external converters, clocks, and control signals when their electrical standards are compatible with the device configuration. Engineers must confirm converter interface timing, clock-jitter budgets, and pin assignments in the F17 package documentation before placing the FPGA next to sensitive analog circuitry.
Recommended
Programmable I/O and Test Equipment
EP4CE10F17I7N can consolidate pin-intensive test, measurement, and programmable-I/O functions into a single FPGA-based module. Its 179 I/O provide substantial connectivity for pattern generation, response capture, instrument control, and inter-board signaling, while embedded block RAM supports trace buffers and temporary test data. The same resources can implement programmable stimulus and analysis logic without several dedicated controller devices. A practical design should divide high-speed and sensitive routes from power-distribution networks, use disciplined clock planning, and verify every I/O standard against the exact speed and temperature ordering variant.
Recommended
Embedded Instrumentation
The EP4CE10F17I7N is well suited to embedded instrumentation that requires deterministic control, status generation, event logging, and communication in a compact package. Its 10,320 logic elements support datapath and control logic, and 414 Kb of block RAM can retain calibration tables, status history, or buffered measurements. The 179 I/O allow the FPGA to coordinate sensors, local display or storage interfaces, and service communications. Because the F17 package is a dense 17 mm × 17 mm 256-LBGA, assembly planning should include via-in-pad strategy, solder-paste control, and thermal paths that preserve junction temperature below the documented 100 °C maximum.
Recommended
Industrial Networking and Sensor Nodes
EP4CE10F17I7N can serve as the programmable control core in industrial networking equipment and connected sensor nodes where multiple digital functions must share one package. The FPGA can implement local packet handling, alarm logic, timing supervision, and data aggregation, while its block RAM supports event queues and protocol buffers. The 179 I/O provide attachment points for network transceivers, sensors, and local actuators. Deployment requires robust power sequencing, continuous ground references, controlled I/O slew behavior, and verified industrial thermal margins. Configuration storage and programming support should also be designed around the device's supported configuration architecture.
Recommended
Recommended Products Summary
Engineering reference data for EP4CE10F17I7N — comparison, design guidance, and compliance information.
Selection Guide
Comparison with Alternatives
| Parameter | This Product | EP4CE10F17I7 | EP4CE10F17C8 | EP4CE10F17C9LN |
|---|---|---|---|---|
| Package | 256-LBGA F17 | 256-LBGA F17 | 256-LBGA F17 | 256-LBGA F17 |
| Brand | Altera Corporation | Altera Corporation | Altera Corporation | Altera Corporation |
| Package Dimensions | 17 mm × 17 mm | 17 mm × 17 mm | 17 mm × 17 mm | 17 mm × 17 mm |
Key Differentiators
- Exact industrial ordering configuration (vs EP4CE10F17C8)
- Same F17 footprint with exact core resources (vs EP4CE10F17I7)
- Industrial grade aligns with controlled environments (vs EP4CE10F17C9LN)
Design Notes
Treat the 256-LBGA F17 layout as a high-density routing problem. Use the manufacturer package drawing for land patterns, ball maps, and via recommendations; do not derive assignments from a generic BGA footprint. Preserve uninterrupted power and ground planes beneath the device, place decoupling connections directly at the appropriate balls, and route sensitive clocks and I/O away from high-slew-rate signals. Complete escape routing and signal-integrity simulations before releasing the PCB for assembly.
Validate the industrial thermal design with worst-case ambient temperature, FPGA activity, and board-specific heat spreading. The documented junction-temperature range reaches 100 °C, so a design that is acceptable at room temperature can violate its limit in a sealed enclosure. Estimate power from actual switching activity, include regulator and nearby-component heat, and use the manufacturer's power-data methodology to establish junction temperature rather than relying only on PCB size.
Implement clean power startup and verify the device's required core and I/O supply sequencing against the manufacturer specifications. Place high-frequency decoupling at the power balls, provide low-impedance plane connections, and confirm regulator stability with the FPGA's dynamic load profile. Account for configuration activity during startup when defining current limits and sequencing delays; do not size the supply from static current alone.
Do not substitute the EP4CE10F17I7, EP4CE10F17C8, or EP4CE10F17C9LN ordering codes without checking the suffix-specific grade and qualification. The shared F17 footprint makes an electrical or PCB replacement plausible, but temperature grade, speed grade, lifecycle status, and commercial conditions can differ. In addition, distinguish 179 user I/O from total package balls because configuration, clock, power, ground, and reserved positions are not general-purpose signal connections.
Plan clock and high-speed interface routing before placing the FPGA. Use the speed grade and board topology to set timing constraints, maintain continuous return paths, and account for loss, crosstalk, and simultaneous-switching noise. If the design includes external transceivers or converters, verify their voltage standards and edge rates against the exact I/O assignments. Post-route extraction and board-level measurements are recommended for interfaces whose margin depends on package escape routing.
Compliance Information
The industrial temperature grade is a device ordering attribute and does not by itself establish AEC-Q100, RoHS, REACH, lead-free, halogen-free, or conflict-minerals qualification. No explicit compliance declaration was identified for this exact ordering part number.
