EP4CE30F29C6N - Cyclone IV E FPGA | Altera | Industrial
N.º de pieza: EP4CE30F29C6N ✓ ActivoEP4CE30F29C6N Descripción general
An FPGA is a programmable logic device whose digital circuits are defined through a configuration bitstream rather than fixed interconnections. Within the semiconductor hierarchy, an FPGA belongs to the broader programmable-logic and digital-semiciconductor families. Cyclone IV E devices combine configurable logic elements, embedded memory, general-purpose I/O, clocking resources, and configurable interconnect resources. This makes them suitable for systems requiring parallel processing, flexible interface adaptation, hardware acceleration, or rapid implementation of control logic.
Key characteristics of the EP4CE30F29C6N include its Cyclone IV E architecture, 200 MHz maximum operating frequency, 1.2 V operating supply, 47 logic cells, 180 logic array blocks, and 780-BGA package format. The F29 ordering code identifies a specific package and speed-related ordering configuration within the EP4CE30 family. These features place the device between small programmable logic devices and larger FPGAs, providing substantial logic capacity where a fixed-function controller would be less flexible.
Technically, the EP4CE30F29C6N combines programmable logic blocks with dedicated routing paths and user-configurable I/O. Its 1.2 V core supply supports modern FPGA operating architectures, while the 780-BGA package supports dense connections needed by devices with numerous I/O and dedicated configuration resources. The 200 MHz operating-frequency figure should be treated as a device-level maximum rather than a guarantee that every design will operate at that rate. Logic depth, routing congestion, clock constraints, memory access patterns, I/O standards, and timing closure all affect achievable system performance.
Typical applications include industrial control, sensor aggregation, communications interfaces, data acquisition, test equipment, embedded vision, and general-purpose programmable logic. The large package can suit multilayer PCB designs where routing density and signal-integrity control are important. Compared with a fixed microcontroller or dedicated logic device, the FPGA allows parallel datapaths, hardware timing, and field-reconfigurable behavior, although software tooling, external memory requirements, configuration management, and engineering effort are typically greater.
Design planning should begin with the manufacturer pin-assignment table, followed by decoupling, configuration, clock, and I/O-standard reviews. Verify power sequencing, differential-pair routing, expansion-board connectivity, and the complete ball-map for the exact ordering code before PCB release. This page combines package and ordering information with sourcing-oriented comparisons and design guidance, while detailed timing, memory, and electrical limits remain in the official Cyclone IV device documentation.
Alternativas directas para EP4CE30F29C6N — mismo encapsulado, compatible pin a pin. Se excluyen las piezas de otro encapsulado que requieren retrabajo de la PCB.
EP4CE30F29C8N
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Ver hoja de datos →EP4CE30F29C6N Valores máximos y características eléctricas
| Device Type | Field Programmable Gate Array (FPGA) |
| FPGA Family | Cyclone IV E |
| Device Designation | EP4CE30 |
| Package Code | F29 |
| Package Type | 780-BGA |
| Logic Cells | 47 |
| Logic Array Blocks | 180 |
| Maximum Operating Frequency | 200 MHz |
| Tensión de alimentación de funcionamiento | 1.2 V |
| Tipo de montaje | Surface Mount |
| Moisture Sensitive | Yes |
| Programmable Logic Type | SRAM-based FPGA |
Guía de configuración de pines de EP4CE30F29C6N 780-bga
Configuración de pines para EP4CE30F29C6N (encapsulado 780-bga). Este CI digital incluye GPIO, interfaces de comunicación (UART, SPI, I2C) y pines de alimentación. Consulte la hoja de datos del fabricante para conocer las funciones alternativas de los pines y las opciones de configuración. Esencial para el diseño de sistemas embebidos y el diseño de PCB.
No hay datos detallados de patillaje disponibles para EP4CE30F29C6N.
Consulte la hoja de datos para ver la configuración completa de patillas.
Aplicaciones típicas
EP4CE30F29C6N es adecuado para 6 aplicacións: Industrial Control and Automation, Data Acquisition and Signal Conditioning, Communications Interface Control, Test and Measurement Instrumentation, Sensor Aggregation and IoT Edge Processing, Embedded Vision Preprocessing.
Industrial Control and Automation
The EP4CE30F29C6N fits parallel industrial control systems that coordinate sensors, actuators, interlocks, and machine timing. Its 180 logic array blocks and 47 logic cells can implement multiple control pipelines concurrently, while the 200 MHz maximum operating frequency supports clocked state machines and fast I/O processing. The 780-BGA package also accommodates a substantial external interface when a design needs many digital, clock, and control connections. Designers should partition control logic into deterministic clock domains, reserve timing margin for routing, and verify that the selected temperature and speed grades satisfy the machine’s operating environment.
Recomendado
Data Acquisition and Signal Conditioning
The EP4CE30F29C6N can implement parallel data-acquisition pipelines where several sensor channels must be sampled, filtered, timestamped, and transferred with predictable timing. The Cyclone IV E FPGA architecture allows acquisition logic, buffering, and interface control to be combined in one programmable device, while its 200 MHz maximum frequency provides a useful upper timing reference for pipeline design. The 780-BGA package provides extensive package-level connectivity for converters, transceivers, memory, and clocks. Final timing performance depends on the selected I/O standards, pin placement, external memory interface, and timing constraints.
Recomendado
Communications Interface Control
The EP4CE30F29C6N is appropriate for communications equipment requiring configurable framing, buffering, protocol conversion, and clock-domain coordination. Its programmable logic can support multiple parallel datapaths instead of forcing fixed processing into a sequential microcontroller architecture. The 1.2 V core supply and 200 MHz maximum operating frequency are compatible with modern digital interface implementations, subject to timing closure and I/O-standard requirements. Engineering teams should define clock-domain boundaries, use the documented clock resources, constrain input and output delays, and verify signal-integrity margins across the complete package and board interconnect.
Recomendado
Test and Measurement Instrumentation
The EP4CE30F29C6N can support programmable test systems that coordinate trigger sequencing, pattern generation, data capture, and instrument interfacing. Its FPGA structure permits deterministic parallel operations and field-reconfigurable behavior, which helps adapt one platform to multiple test sequences without changing the hardware. The 780-BGA package supplies a large number of connections for test fixtures, memories, and high-speed transceivers, while the 200 MHz maximum frequency sets the device-level timing ceiling. Practical implementations still require careful clock distribution, termination, grounding, and timing analysis to preserve measurement integrity.
Recomendado
Sensor Aggregation and IoT Edge Processing
The EP4CE30F29C6N can aggregate outputs from multiple sensors, perform protocol conversion, and execute parallel edge-processing functions before data reaches a host processor. Its configurable logic is useful when several digital sensor streams must be normalized or filtered concurrently with bounded latency. The device’s 180 logic array blocks and 47 logic cells provide a meaningful implementation base for modest parallel systems, and the 780-BGA package offers extensive connectivity for sensors and communications hardware. Deployment should include careful I/O-voltage planning, low-noise supply design, clock jitter analysis, and an FPGA reset strategy that protects the system during startup.
Recomendado
Embedded Vision Preprocessing
The EP4CE30F29C6N can implement programmable image-acquisition preprocessing when a system requires parallel pixel transport, thresholding, region detection, or format conversion. FPGA implementation allows these operations to run concurrently with deterministic timing and can reduce the amount of data transferred to a higher-level processor. Its 200 MHz maximum operating frequency and 180 logic array blocks make it suitable for moderate-throughput pipelines rather than unrestricted high-resolution processing. The 780-BGA package supports numerous connections to image sensors, memory, and interfaces, but designers must use the exact F29 pinout and complete timing closure for the chosen external video standard.
Recomendado
Datos de referencia de ingeniería para EP4CE30F29C6N — comparación, orientación de diseño e información de cumplimiento.
Guía de selección
Comparación con alternativas
| Parámetro | Este producto | EP4CE30F29C8N |
|---|---|---|
| Brand | Intel | Intel |
| Package | 780-BGA | 780-BGA |
| FPGA Family | Cyclone IV E | Cyclone IV E |
| Device Designation | EP4CE30 | EP4CE30 |
| Operating Supply Voltage | 1.2 V | 1.2 V |
| Logic Array Blocks | 180 | 180 |
| Ordering Suffix | C6N | C8N |
Diferenciadores clave
- Exact EP4CE30 F29 package positioning (frente a EP4CE30F29C8N)
- Substantial parallel logic capacity (frente a EP4CE30F23I7N)
- Specific C6N ordering configuration (frente a EP4CE30F29C8N)
Notas de diseño
Assign the EP4CE30F29C6N using the exact F29 780-BGA ball map rather than a generic EP4CE30 diagram. Place required bypass capacitors near their specified power balls, preserve uninterrupted ground references, and route sensitive clock and configuration signals away from high-current switching outputs. Because this package has hundreds of connections, power-and-ground planning should begin before logic placement so that return paths remain continuous.
Use the manufacturer constraints to control clock jitter, input and output timing, I/O standards, and transition behavior. External memories, converters, and communications devices can introduce board-level skew and loading that cannot be solved solely by Quartus timing analysis. Complete signal-integrity simulation for critical interfaces, apply differential-pair rules where required, and validate the assembled board with suitable measurement equipment before production.
Do not treat the 1.2 V operating supply as the only board-power requirement; auxiliary rails, I/O voltages, configuration voltage, and sequencing must also be identified from the exact device documentation. Budget regulator capacity, voltage tolerance, transient response, and startup current for the complete design. Keep switching supplies and inductors away from sensitive clock and configuration routing, and include test access for observing internal rails during bring-up.
The 200 MHz figure is a maximum device-level operating frequency, not an assurance that every logic block will close timing at that rate. Constrain clocks, analyze worst-case paths, and reserve margin for routing congestion, fanout, and I/O delay. Also avoid assuming that every EP4CE30 package is interchangeable: the F23I7N comparison uses a 484-ball package, whereas this ordering code uses the F29 780-BGA package.
Información de cumplimiento
The manufacturer product and comparison pages identify the device, package, speed, voltage, and logic characteristics but do not provide a complete environmental or compliance declaration in the cited material.
