EP1AGX35CF484C4N - Arria GX FPGA | Altera | Industrial
MPN: EP1AGX35CF484C4N ✗ End of Life| Qty | Unit Price | Extended |
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| 1 | $0 | $0.00 |
| 10 | $0 | $0.00 |
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| 500 | $0 | $0.00 |
| 1,000 | $0 | $0.00 |
Drop-in alternatives for EP1AGX35CF484C4N — same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.
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Request AlternativesEP1AGX35CF484C4N Maximum Ratings & Electrical Characteristics
| Device Type | Arria GX Field Programmable Gate Array (FPGA) IC |
| Manufacturer | Altera (Intel) |
| Product Family | Arria GX |
| Programmability | Field programmable |
| Package | 484-BBGA |
| Package Pin Count | 484 pins |
| Mounting Type | Surface Mount |
| RoHS Status | unknown |
| REACH Status | unknown |
| AEC-Q100 Qualification | unknown |
EP1AGX35CF484C4N 484 pins Pin Configuration Guide
Complete pinout information for EP1AGX35CF484C4N (484 pins package) with 484 pins pins. 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 EP1AGX35CF484C4N.
Refer to the datasheet for full pin configuration.
Estimated pin count: 484 pins pins (digital package)
Safe Operating Area (SOA) & Thermal Characteristics
No official SOA curve available for this digital IC. Always operate within absolute maximum ratings specified in the datasheet. Ensure adequate cooling and derate as needed.
Typical Applications
EP1AGX35CF484C4N is suitable for 6 applications: Communications Equipment, Industrial Automation, Test and Measurement, Embedded Control Systems, High-Speed Data Acquisition, Programmable Protocol Processing.
Communications Equipment
EP1AGX35CF484C4N is a candidate for communications equipment that needs configurable digital logic and serial-interface processing. The verified Arria GX family material references 3.125 Gbps serial transceivers, which is relevant to systems handling high-speed data paths, but the exact EP1AGX35CF484C4N channel count and target-specific limits are not supplied. Engineers should use the FPGA for protocol adaptation, packet processing, clock and data alignment, or configurable interface bridging where the design can be validated against the official device documentation. The 484-BBGA package supports an integration-focused layout, but signal integrity depends on controlled-impedance routing, clean reference clocks, and verified termination. Power-rail sequencing, transceiver biasing, and thermal analysis must follow the exact C4N ordering code. This device should not be treated as a generic high-speed transceiver component until its exact resource count and operating conditions are confirmed.
Recommended
Industrial Automation
EP1AGX35CF484C4N can be considered for industrial automation systems requiring reconfigurable control, timing, and data-handling logic. Its FPGA architecture can support parallel control algorithms, sensor aggregation, protocol conversion, and deterministic interface functions without changing the PCB logic implementation. The supplied data confirms an Arria GX FPGA and 484-BBGA package, but it does not confirm operating temperature, core voltage, I/O voltage, logic-element count, or industrial qualification. Before selection, compare the exact C4N ordering code with the official industrial-grade ordering table. Design the board with verified rail sequencing, local decoupling, clock-distribution review, and thermal analysis. Use configuration and JTAG access for production programming, boundary checking, and recovery. The same package designation must not be used alone to approve a replacement, because industrial reliability also depends on environmental ratings, device resources, and the complete ball map.
Recommended
Test and Measurement
EP1AGX35CF484C4N is potentially useful in test and measurement equipment where configurable logic must coordinate acquisition, triggering, formatting, and interface functions. An FPGA can provide parallel processing and deterministic timing, while the supplied Arria GX family context mentions 3.125 Gbps serial transceivers. However, the exact target’s transceiver count, logic density, memory, I/O standards, and timing limits are not available in the verified search data. The 484-BBGA package permits a compact implementation but requires careful reference-plane design, controlled-impedance routes, and placement of clock and power components close to their specified balls. Engineers should validate measurement resolution, clock jitter, signal-integrity budgets, and configuration reproducibility using the official datasheet. A proposed alternative should preserve the original pinout and electrical timing, not merely share the package code. Until those checks are complete, the part should be treated as a target-specific FPGA candidate rather than a fully characterized substitute.
Recommended
Embedded Control Systems
EP1AGX35CF484C4N can serve configurable control functions in embedded systems that require hardware-level parallelism, custom timing, or multiple digital interfaces. The device is identified as an Arria GX FPGA, allowing logic to be changed through configuration rather than fixed at fabrication. The supplied evidence does not provide target-specific core voltage, I/O voltage, power consumption, operating temperature, or resource counts, so a board design cannot be released from the snippets alone. Designers should confirm the C4N ordering-code limits and use the official reference design for power sequencing, configuration, and decoupling. The 484-BBGA package is mechanically demanding; inspect land pattern, via escape, solder process, inspection access, and thermal paths. Firmware and hardware teams should agree on configuration-image loading, reset behavior, JTAG access, and production recovery. Any replacement must preserve configuration, timing, I/O, and ball-level assignments, not just the 484-BBGA package name.
Recommended
High-Speed Data Acquisition
EP1AGX35CF484C4N may fit high-speed data-acquisition architectures that need configurable capture, buffering, filtering, or interface formatting. The supplied Arria GX family result references 3.125 Gbps serial transceivers, but the exact EP1AGX35CF484C4N channel count and guaranteed performance remain unverified. Therefore, the device should be evaluated from the official datasheet for transceiver resources, reference-clock inputs, lane rates, I/O standards, and power requirements. The 484-BBGA package offers a defined land pattern, yet high-speed channels require continuous reference planes, short escapes, controlled impedance, and careful return-path continuity. Signal-integrity simulations should be performed before layout freeze, including crosstalk, jitter, and termination. Configuration loading and production programming must also be defined. A same-package device is not a drop-in alternative unless its ball map and all critical resources match the target.
Recommended
Programmable Protocol Processing
EP1AGX35CF484C4N can be used as a configurable protocol-processing platform where data must be parsed, transformed, buffered, or routed between digital interfaces. FPGA configurability supports protocol changes without a new silicon device, making the part relevant to evolving embedded and communications designs. The verified material confirms the Arria GX family and 484-BBGA package, while the family search result references 3.125 Gbps serial transceivers; exact C4N target values are not available. Engineers should confirm the number of transceivers, I/O banks, supported standards, clocking resources, configuration interfaces, and operating limits from the official documentation. Board implementation should prioritize clean clocks, deterministic reset timing, local decoupling, and robust JTAG or configuration access. When evaluating replacements, require a complete common-ball and electrical comparison. Package matching alone is insufficient for a board that uses protocol-specific pins, timing constraints, or firmware-controlled configuration.
Recommended
Recommended Products Summary
Engineering reference data for EP1AGX35CF484C4N — comparison, design guidance, and compliance information.
Selection Guide
Comparison with Alternatives
| Parameter | This Product |
|---|---|
| Brand | Altera |
| Package | 484-BBGA |
| Device Type | Arria GX FPGA |
| Programmable Logic | Field programmable |
| Serial Transceiver Context | 3.125 Gbps family reference; exact target value [DATA_NEEDED] |
| Core Voltage | [DATA_NEEDED] |
| Logic Elements | [DATA_NEEDED] |
| Operating Temperature | [DATA_NEEDED] |
Key Differentiators
- Target-specific Arria GX ordering code (vs EP1AGX35CF484C6N)
- Configurable FPGA architecture (vs EP1AGX20CF484C6N)
- 484-BBGA package integration (vs EP1AGX20CF780C6N)
Design Notes
Power design must be based on the exact EP1AGX35CF484C4N ordering code and the official datasheet, because the supplied search data does not provide core voltage, I/O voltage, current, or sequencing limits. Confirm rail tolerances, ramp order, power-good behavior, decoupling locations, and maximum supply current before layout. Keep high-current loops away from sensitive clock and transceiver return paths. Do not use a C6N reference circuit as proof of C4N compatibility without checking the ordering-code tables.
The 484-BBGA package requires a verified land pattern and a complete manufacturer ball map. Use the official package drawing to map every power, ground, clock, configuration, transceiver, and user-I/O ball. Provide continuous reference planes, short high-speed escapes, and controlled-impedance routing where the design uses serial interfaces. Inspect via fan-out, solder-mask definition, and BGA assembly tolerances. Because exact ball names are absent from the verified data, no pin-level connection should be guessed from the package code.
For high-speed or acquisition paths, validate the exact Arria GX target resource count and electrical limits from the manufacturer datasheet. The supplied family result mentions 3.125 Gbps serial transceivers, but it is not a target-specific guarantee. Simulate channel loss, crosstalk, jitter, termination, and reference-clock distribution before layout release. Keep clock and high-speed routes over continuous reference planes, control via stubs, and reserve test points that do not disrupt the 484-BBGA escape pattern.
Do not assume that a similarly named EP1AGX35CF484C6N is a drop-in replacement for EP1AGX35CF484C4N. The exact ordering code can affect grade or configuration, while package identity alone does not establish pin compatibility. Before approving a replacement, compare every ball assignment, power rail, I/O standard, transceiver resource, configuration requirement, timing limit, and thermal condition. Also verify procurement traceability, date code, programming status, and authorized-distributor documentation because the supplied data contains no verified stock quantity or lifecycle declaration.
Compliance Information
The verified web data does not provide RoHS, REACH, AEC-Q100, lead-free, halogen-free, or conflict-minerals declarations for the exact MPN. Obtain the manufacturer compliance documentation for EP1AGX35CF484C4N before making regulatory claims.
