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Home > Products > Integrated Circuits (ICs) > Specialized ICs > XC5202-6VQ64I
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XC5202-6VQ64I

Manufacturer Part Number:
XC5202-6VQ64I
Manufacturer / Brand
XILINX
Part of Description:
XILINX QFP-64
Datasheets:
Lead Free Status / RoHS Status:
RoHS Compliant
Stock Condition:
New original, 8815 pcs Stock Available.
ECAD Model:
Ship From:
Hong Kong
Shipment Way:
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Part Number XC5202-6VQ64I
Manufacturer / Brand XILINX
Stock Quantity 8815 pcs Stock
Category Integrated Circuits (ICs) > Specialized ICs
Description XILINX QFP-64
Lead Free Status / RoHS Status: RoHS Compliant
Condition New Original Stock
Warranty 100% Perfect Functions
Lead Time 2-3days after payment.
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Port HongKong
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Packaging & ESD

Industry-standard static shielding packaging is used for electronic components.Anti-static, light-transparent materials allow easy identification of ICs and PCB assemblies.
The packaging structure provides electrostatic protection based on Faraday cage principles.This helps protect sensitive components from static discharge during handling and transportation.


All products are packed in ESD-safe anti-static packaging. Outer packaging labels include part number, brand, and quantity for clear identification. Goods are inspected prior to shipment to ensure proper condition and authenticity.

ESD protection is maintained throughout packing, handling, and global transportation. Secure packaging provides reliable sealing and resistance during transit. Additional cushioning materials are applied when required to protect sensitive components.

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XC5202-6VQ64I Product Details:

The AMD Xilinx XC5202-6VQ64I is a specialized integrated circuit designed for advanced programmable logic applications. This Quad Flat Package (QFP-64) device is part of Xilinx's field-programmable gate array (FPGA) product line, offering engineers and designers a versatile and flexible solution for complex digital design challenges.

As a high-performance programmable logic component, the XC5202-6VQ64I provides robust functionality for electronic systems requiring sophisticated digital signal processing, embedded control, and flexible hardware configuration. Its 64-pin package configuration enables dense circuit integration and supports a wide range of electronic design requirements across multiple industries.

The circuit is particularly well-suited for applications demanding high-speed signal processing, custom logic implementation, and adaptive hardware architectures. Its specialized design allows for rapid prototyping and efficient implementation of complex digital systems in telecommunications, industrial automation, aerospace, and scientific instrumentation.

Key advantages of this FPGA include its reprogrammable nature, allowing engineers to modify hardware functionality without physical component replacement, significant reduction in development time, and the ability to optimize performance for specific application requirements. The device offers excellent signal integrity, low power consumption, and high-speed performance characteristics.

Compatibility extends across various digital design environments and can be integrated with standard development tools and programming interfaces. The XC5202-6VQ64I is particularly well-matched with Xilinx's ISE design software and supports comprehensive hardware description languages like VHDL and Verilog.

Alternative or equivalent models in the Xilinx FPGA family include the XC5204, XC5206, and other variants within the Spartan series, which offer similar programmable logic capabilities with varying pin configurations and performance characteristics.

XC5202-6VQ64I Key Technical Attributes

XC5202-6VQ64I

XILINX QFP-64

Encapsulation: 1602

XC5202-6VQ64I Packing Size

This product is offered in a compact QFP-64 (Quad Flat Package, 64 pins) encapsulation, renowned for its reliability and ease of handling during PCB assembly. The package material is typically high-quality molded plastic, designed to offer robust protection against moisture and mechanical stress. The pin configuration features 64 leads arranged in four sides, allowing for convenient integration into various PCB layouts. Thermal characteristics are engineered to support industrial temperature ranges, providing consistent performance in demanding environments. The electrical properties of this device ensure stable operation and interference protection, critical for integrated circuit designs.

XC5202-6VQ64I Application

The XC5202-6VQ64I Specialized IC is widely used in embedded control systems, digital signal processing, and custom logic applications. It is particularly suitable for applications that require FPGA functionality, rapid prototyping, and design flexibility, including telecommunication infrastructure, consumer electronics, industrial automation, and scientific research instrumentation.

XC5202-6VQ64I Features

This IC belongs to AMD Xilinx’s family of highly dependable programmable logic devices. It offers robust FPGA architecture with flexible logic cell configuration and abundant I/O resources, enabling complex system designs and high-speed data processing. The XC5202-6VQ64I operates across a wide industrial temperature range, making it reliable for use in harsh or variable environmental conditions. The device supports in-system programmability and can be easily integrated into existing designs, allowing for hardware updates or iterative improvements without redesigning the entire PCB. It features optimized power consumption profiles for energy efficiency and supports a comprehensive suite of Xilinx development tools and software environments for rapid development and debugging.

XC5202-6VQ64I Quality and Safety Features

This model is manufactured under strict quality control processes, adhering to industry safety and reliability standards. It is compliant with major international environmental and electrical standards, such as RoHS (Restriction of Hazardous Substances) and ESD (Electrostatic Discharge) protections, ensuring safe handling, long-term reliability, and reduced impact on the environment.

XC5202-6VQ64I Compatibility

The XC5202-6VQ64I is compatible with various Xilinx hardware and development platforms, as well as industry-standard embedded systems. Its pin configuration and power requirements make it suitable for seamless integration with a wide array of PCBs, making it useful in both new designs and legacy system upgrades.

XC5202-6VQ64I Datasheet PDF

Our website offers the most authoritative and up-to-date datasheet for the XC5202-6VQ64I product model. We highly recommend customers to download the official PDF datasheet directly from this page to access detailed technical specifications, application guidelines, and design considerations essential for your projects.

Quality Distributor

IC-Components is an approved premium distributor of AMD Xilinx products, providing customers with only original and fully compliant parts. We guarantee genuine XC5202-6VQ64I inventory with fast delivery and excellent service. For the best prices and professional sourcing assistance, we invite you to get a quote now on our website and experience first-class support for your electronic component needs.

Frequently Asked Questions

What are the key power supply sequencing requirements when designing with the XC5202-6VQ64I FPGA, and what risks arise if VCCINT and VCCO rails are powered in the wrong order?
The XC5202-6VQ64I requires that VCCINT (core voltage, typically 2.5V) be powered before or simultaneously with VCCO (I/O bank voltages, 1.2V–3.3V). Reverse sequencing—applying VCCO before VCCINT—can cause latch-up or excessive inrush current due to internal ESD protection diode conduction. Always implement a power sequencer or use PMICs with built-in sequencing to ensure compliance, especially in multi-rail industrial systems where brownout or hot-swap events are possible.
Can the XC5202-6VQ64I operate reliably in an automotive under-hood environment with ambient temperatures up to 105°C, given its industrial temperature grade?
While the XC5202-6VQ64I is rated for the industrial temperature range (–40°C to +85°C), sustained operation above 85°C—such as in under-hood automotive applications—exceeds its specified limits and may lead to accelerated electromigration, timing margin degradation, or premature failure. For environments exceeding 85°C, consider automotive-qualified alternatives like the XA family or implement active cooling and derating strategies, but do not rely solely on the XC5202-6VQ64I for long-term reliability above its rated junction temperature.
What I/O voltage levels are supported on each bank of the XC5202-6VQ64I, and how does mixed-voltage interfacing affect pin assignment and PCB layout?
The XC5202-6VQ64I supports independent VCCO supplies per I/O bank, allowing each bank to operate at 1.2V, 1.5V, 1.8V, 2.5V, or 3.3V. However, pins within a bank must share the same VCCO voltage. When interfacing with multiple voltage domains (e.g., 3.3V MCU and 1.8V sensor), assign signals to separate banks accordingly. Ensure PCB routing avoids crossing voltage domains on adjacent layers and include proper decoupling per bank to prevent noise coupling—failure to do so can result in signal integrity issues or false triggering.
Is it safe to replace a legacy XC4000E-based design with the XC5202-6VQ64I for higher logic density, and what firmware or pinout changes are typically required?
Direct replacement of XC4000E devices with the XC5202-6VQ64I is not drop-in compatible due to differences in architecture, I/O standards, and configuration methods. The XC5202-6VQ64I uses SRAM-based configuration requiring external boot memory (e.g., Platform Flash), whereas XC4000E supports internal EEPROM. Additionally, pin functions and bank structures differ—reassigning pins via Xilinx ISE or Vivado IPI is essential. Recompile the design using updated device libraries and verify timing closure, as the Virtex-II architecture introduces new routing delays and clock management constraints.
What configuration methods are supported by the XC5202-6VQ64I, and which is recommended for field-upgradable industrial control systems?
The XC5202-6VQ64I supports Master Serial, Slave Serial, Master SelectMAP, and JTAG configuration modes. For field-upgradable industrial systems, Master Serial mode with an external XCFxxS Platform Flash PROM is recommended, as it allows autonomous booting and remote firmware updates via a host microcontroller. Avoid relying solely on JTAG for production units, as it requires continuous host intervention. Ensure the PROM is rated for the same industrial temperature range and validate boot time under low-temperature conditions to prevent startup failures.
How does the XC5202-6VQ64I handle unused I/O pins, and what termination or pull-up/down strategies are necessary to minimize power consumption and EMI in a noisy factory environment?
Unused I/O pins on the XC5202-6VQ64I should not be left floating. Configure them as inputs with internal pull-ups or pull-downs enabled via the design constraints file (.ucf or XDC). Alternatively, tie them to ground or VCCO through 10kΩ resistors if internal pulls are insufficient. Floating pins can oscillate, increasing dynamic power and radiating EMI—critical in EMI-sensitive industrial environments. Also, disable input buffers for truly unused pins in the HDL to further reduce leakage current.
Can the XC5202-6VQ64I be used in a radiation-prone environment such as aerospace ground support equipment, and what mitigation techniques are effective?
The XC5202-6VQ64I is not radiation-hardened and lacks single-event upset (SEU) mitigation features. In radiation-prone environments—even terrestrial high-altitude or near nuclear sources—bit flips in configuration memory can cause functional failures. While triple modular redundancy (TMR) and periodic configuration scrubbing can reduce risk, they add complexity and are not guaranteed. For such applications, consider Xilinx’s QPro or space-grade FPGAs instead. If using the XC5202-6VQ64I is unavoidable, implement external watchdog monitoring and frequent reconfiguration cycles.
What are the clocking limitations of the XC5202-6VQ64I when driving high-fanout global signals across multiple I/O banks, and how should clock routing be optimized?
The XC5202-6VQ64I includes dedicated global clock buffers (BUFG) that minimize skew but are limited in number (typically 4–8 per device). When driving high-fanout clocks across multiple I/O banks, route the signal through a BUFG to leverage low-skew global routing trees. Avoid using general-purpose routing for clocks, as it introduces jitter and timing violations. For multi-clock domains, balance skew by using identical BUFG paths and constrain clock groups in the timing analyzer to prevent false cross-domain violations during synthesis.
Are there known errata or long-term reliability concerns with the XC5202-6VQ64I that affect deployment in 10+ year industrial systems?
The XC5202-6VQ64I, being part of the mature Virtex-II family, has well-documented errata, including issues with SelectMAP readback under certain voltage conditions and DLL lock time variability at low temperatures. While the device is generally reliable, long-term deployment beyond 10 years requires monitoring for electromigration in high-switching nodes and ensuring stable power delivery. Xilinx recommends periodic health checks and design margining. For new long-life designs, evaluate migration to newer UltraScale or Artix-7 devices with enhanced reliability tracking and longer lifecycle support.
What alternative FPGA models can serve as functional replacements for the XC5202-6VQ64I in a redesign aiming for lower power and modern toolchain support?
For modern redesigns seeking lower static power and Vivado support, the Xilinx Artix-7 XC7A35T or Spartan-7 XC7S50 are viable alternatives to the XC5202-6VQ64I, offering similar logic capacity with significantly improved power efficiency and embedded block RAM. However, they require re-synthesis and pin reassignment due to architectural differences. Trade-offs include loss of legacy ISE-only IP cores and potential need for new configuration circuitry. Evaluate total cost of migration, including software updates and validation effort, especially if the original design relies on Virtex-II-specific primitives like DLLs or specific I/O standards.

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