EP4CE15U14I7N - 15,408-Element Cyclone IV E FPGA | Altera
部品番号: EP4CE15U14I7N ✓ 生産中EP4CE15U14I7N 概要
A field-programmable gate array belongs to the programmable-logic hierarchy of semiconductors. Unlike a fixed-function application-specific integrated circuit, an FPGA combines programmable logic elements, embedded block memory, programmable interconnects, and I/O resources on one device. Designers use an FPGA when algorithm behavior, interface timing, control logic, or product requirements are likely to evolve after the hardware design begins.
The EP4CE15U14I7N provides 15,408 logic elements, 165 I/Os, and 516,096 embedded-memory bits. These headline resources support parallel data processing, control-plane logic, protocol bridging, and embedded-memory buffering. Its 256-LFBGA package provides a dense board-level footprint for space-constrained industrial, communications, and embedded-control equipment, while the I/Os support connections to external memory, converters, transceivers, and digital peripherals.
Cyclone IV E devices use a programmable-logic architecture in which designers implement digital functions through hardware description code, then configure the FPGA through a supported programming interface. Configuration establishes the routing and function of the logic elements, embedded memory, and I/O blocks. Because the configuration is programmable, the same board can support different logic revisions or product variants without changing the physical FPGA package.
Typical uses include industrial control systems, sensor aggregation, network-interface front ends, test equipment, embedded vision, and general-purpose signal processing. The device is particularly relevant when parallel logic and programmable I/O are more valuable than the power density or absolute processing performance of a larger FPGA. Designs should account for pin assignments, bank power requirements, configuration storage, clocking, decoupling, and BGA assembly constraints during schematic and layout development.
The principal design consideration is that FPGA replacement is not determined only by logic-element count. Voltage levels, supported I/O standards, memory interfaces, clock resources, configuration method, package ball pattern, and design-tool support must all be checked. A cross-family functional equivalent may require a PCB change and a new constraint set even when its advertised logic capacity is similar.
This page organizes the exact ordering-part information, package data, sourcing context, application guidance, and migration considerations into one engineering reference. It also distinguishes true package-level drop-in compatibility from broader functional equivalence, helping designers avoid treating similar FPGA capacities as evidence that an existing PCB can be reused without qualification.
ドロップイン代替品: EP4CE15U14I7N — 同一パッケージでピン互換。PCBの作り直しが必要な異なるパッケージの部品は除外されています。
この製品に利用可能なドロップイン代替品はありません。
代替品をリクエストEP4CE15U14I7N 最大定格＆電気的特性
| Device Type | Cyclone IV E field-programmable gate array (FPGA) |
| Logic Elements | 15,408 elements |
| Embedded Memory | 516,096 bits |
| Memory Blocks | 165 blocks |
| I/O Count | 165 I/Os |
| パッケージ | 256-LFBGA |
| Package Pin Count | 256 pins |
| 実装タイプ | Surface mount |
| Device Family | Cyclone IV E |
| FPGA Variant | EP4CE15 U14 |
| Operating Temperature Grade | Industrial |
EP4CE15U14I7N 256 pins ピン配置ガイド
EP4CE15U14I7N (256 pins パッケージ) のピン配置。 このデジタルICには、GPIO、通信インターフェース (UART、SPI、I2C)、および電源ピンが含まれています。代替ピン機能と設定オプションについては、メーカーのデータシートを参照してください。組み込みシステム設計とPCBレイアウトに不可欠です。
詳細なピン配置データはありません: EP4CE15U14I7N.
詳細は データシート をご参照ください。
主な用途
EP4CE15U14I7N の用途: 6 件s: Industrial Control and Automation, Industrial Sensor Aggregation, Communications Interface Front End, Test and Measurement Equipment, Embedded Signal Processing, Embedded Vision Preprocessing.
Industrial Control and Automation
The EP4CE15U14I7N fits industrial controllers that require deterministic parallel logic, multiple external interfaces, and reconfigurable control functions. Its 15,408 logic elements can host state machines, sequencing logic, counters, and interface controllers, while 165 I/Os provide substantial connectivity to sensors, actuators, and communication transceivers. The 516,096 bits of embedded memory can support packet buffering, status histories, and intermediate data paths. Because the device is an industrial-temperature ordering configuration, it is appropriate for equipment where field-updateable logic and deterministic control are valuable. The design should still verify every bank voltage, I/O standard, clock requirement, and thermal condition against the package-specific manufacturer documentation.
Industrial Sensor Aggregation
EP4CE15U14I7N can consolidate measurements from multiple sensors when a system needs parallel acquisition, digital filtering, and local protocol handling. The 165 I/Os create ample connection capacity for sensor inputs, triggers, status indicators, and downstream communications, while 15,408 logic elements support counters, threshold logic, calibration tables, and data-format conversion. Its 516,096 embedded-memory bits can hold short acquisition windows and intermediate results without using an external memory component for every buffer. The implementation should account for input thresholds, clock-domain boundaries, and electrical constraints on each I/O bank. Using the package pin table during architecture definition helps prevent power-routing conflicts and unnecessary PCB redesign.
Communications Interface Front End
The EP4CE15U14I7N is appropriate for communications front ends that need programmable framing, buffering, and protocol adaptation. Its 15,408 logic elements can implement parallel-to-serial logic, state machines, filters, and stream controls, while 165 I/Os can connect the FPGA to transceivers, clock sources, and status signals. The 516,096 bits of embedded memory provide local packet, frame, or buffer storage for designs that do not require a large external memory subsystem. A practical implementation should establish deterministic clocking, use the appropriate I/O standards, and verify timing against the target interface rate. Since this is a 256-BGA device, signal integrity, power delivery, and assembly requirements deserve early attention.
Test and Measurement Equipment
EP4CE15U14I7N suits programmable test logic, pattern generation, acquisition control, and instrument backplanes. Its 15,408 logic elements allow multiple counters, timing units, sequencers, and digital pattern engines to operate in parallel, and its 165 I/Os provide broad connectivity to test pins and support circuitry. The 516,096 embedded-memory bits can support sample capture, calibration sequences, and working buffers. The device also lets manufacturers revise measurement algorithms or interface behavior through configuration rather than redesigning the entire board. For laboratory or production-test systems, confirm the required I/O voltage, clocking architecture, configuration method, and synchronization method. Thermal and BGA-layout planning should proceed alongside functional design.
Embedded Signal Processing
EP4CE15U14I7N can implement fixed-function DSP, filtering, waveform generation, and real-time signal conditioning when parallel programmable logic is more useful than a specialized processor core. The 15,408 logic elements support parallel arithmetic and pipeline stages, while 516,096 embedded-memory bits provide local storage for coefficients, circular buffers, and intermediate results. With 165 I/Os, the FPGA can connect directly to converters, sensors, and digital signal chains. Engineers should use pipelined architectures where timing permits, constrain all clock domains, and evaluate implementation timing for the target sample rate. The industrial ordering designation makes the device relevant to embedded equipment requiring stable operation across a controlled industrial temperature range.
Embedded Vision Preprocessing
EP4CE15U14I7N is applicable to image or video preprocessing stages that perform thresholding, pixel formatting, region marking, line detection, or data reduction before a higher-level processor receives the result. Its 15,408 logic elements support parallel pixel operations and pipeline control, while 165 I/Os can interface with image sensors, line buffers, and local memory devices. The 516,096 embedded-memory bits can be used for line and feature storage in suitable architectures. Clock-rate, input timing, and video-standard requirements must be evaluated carefully because the device is a programmable-logic platform rather than a dedicated video processor. A complete design should also verify camera-interface voltage, external-memory requirements, and BGA signal-integrity constraints.
エンジニアリング参考データ: EP4CE15U14I7N — 比較、設計ガイダンス、コンプライアンス情報。
選定ガイド
代替品との比較
| パラメータ | この製品 |
|---|---|
| Manufacturer | Altera |
| Device Family | Cyclone IV E |
| Logic Elements | 15,408 elements |
| Embedded Memory | 516,096 bits |
| Memory Blocks | 165 blocks |
| I/O Count | 165 I/Os |
| Package | 256-LFBGA |
| Temperature Grade | Industrial |
主な差別化要因
- Combines a 15,408-element Cyclone IV E resource level with 165 I/Os （vs Lattice ECP5-5)
- Provides 516,096 embedded-memory bits in the 256-LFBGA device configuration （vs Xilinx XC7A15T)
- Offers an industrial-temperature ordering option with 165 I/Os （vs Microsemi M2S025)
設計ノート
Design the 256-LFBGA footprint, power planes, and escape routing from the package-specific land pattern and ball map. Keep high-speed or sensitive interface routes short, provide continuous reference planes, and route configuration, clock, and programming signals away from noisy switching nodes. Confirm the exposed-thermal and power-ball requirements directly from the manufacturer package drawings before releasing the PCB.
Plan separate core and I/O supply distribution according to the device's supported voltage combinations and bank requirements. Validate every external interface against its assigned bank voltage before layout. Decoupling and regulator selection should account for normal logic activity, configuration behavior, and permitted operating conditions. Use the manufacturer power-guidance figures rather than estimating supply requirements from logic-element count alone.
Assign clocks deliberately and minimize skew between related clock and data paths. Apply the device timing constraints to both internal registers and package-boundary interfaces, and validate post-route timing with the actual speed grade and operating temperature. Changes to I/O standards, external memory topology, or clock sources can alter timing closure and should be reviewed before schematic release.
Do not treat the ECP5-5, XC7A15T, or M2S025 as automatic replacements merely because their logic capacities are similar. Cross-family migration can require different package balls, supply rails, configuration methods, clock resources, intellectual-property interfaces, and constraint syntax. Review the complete board requirements and perform a design recompile and timing comparison before considering any functional alternative.
コンプライアンス情報
The ordering information identifies an industrial-temperature FPGA but does not state RoHS, REACH, lead-free, halogen-free, or conflict-minerals status. AEC-Q100 is treated as not applicable because this ordering part is not identified as an automotive-qualified variant.
