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XCVE1752-2MSENSVG1369

In Stock 1 pcs Reference Price(In US Dollars)
1+
$17,389.7301
Manufacturer Part Number:
XCVE1752-2MSENSVG1369
Manufacturer / Brand
AMD
Part of Description:
IC VERSAL AI-CORE FPGA 1369BGA
Datasheets:
Lead Free Status / RoHS Status:
RoHS Compliant
Stock Condition:
New original, 1 pcs Stock Available.
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Hong Kong
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DHL/Fedex/TNT/UPS

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Part Number XCVE1752-2MSENSVG1369
Manufacturer / Brand AMD
Stock Quantity 1 pcs Stock
Category Integrated Circuits (ICs) > Embedded - System On Chip (SoC)
Description IC VERSAL AI-CORE FPGA 1369BGA
Lead Free Status / RoHS Status: RoHS Compliant
Supplier Device Package 1369-FCBGA (35x35)
Speed 600MHz, 1.4GHz
Series Versal™ AI Core
RAM Size 256KB
Peripherals DDR, DMA, PCIe
Package / Case 1369-BFBGA, FCBGA
Package Tray
Operating Temperature 0°C ~ 110°C (TJ)
Number of I/O 500
Flash Size -
Core Processor Dual ARM® Cortex®-A72 MPCore™ with CoreSight™, Dual ARM®Cortex™-R5F with CoreSight™
Connectivity CANbus, EBI/EMI, Ethernet, I²C, MMC/SD/SDIO, SPI, UART/USART, USB OTG
Architecture MPU, FPGA

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.


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Weight(KG): 0.00kg-1.00kg Price(USD$) : USD$60.00
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XCVE1752-2MSENSVG1369 Product Details:

The AMD Xilinx Versal AI Core FPGA (Part Number XCVE1752-2MSENSVG1369) represents an advanced, high-performance System-on-Chip (SoC) solution designed for complex computational and embedded processing requirements. This cutting-edge integrated circuit leverages a sophisticated heterogeneous architecture that combines robust processing capabilities with adaptable programmable logic.

At its core, the device features a powerful dual-core ARM Cortex-A72 MPCore processor complemented by a dual ARM Cortex-R5F processor, enabling sophisticated real-time and high-performance computing across diverse application domains. The integrated design supports a wide operating temperature range from 0°C to 110°C, ensuring reliable performance in challenging environmental conditions.

The FPGA delivers exceptional computational flexibility with 500 I/O pins and multiple connectivity options, including Ethernet, CAN bus, USB OTG, SPI, UART, and PCIe interfaces. Its impressive processing speeds ranging from 600MHz to 1.4GHz, coupled with 256KB of RAM, make it suitable for demanding applications in artificial intelligence, edge computing, telecommunications, industrial automation, and aerospace systems.

Key architectural advantages include its MPU/FPGA hybrid design, which provides unparalleled programmability and performance optimization. The device supports critical peripheral interfaces like DDR memory, DMA, and multiple communication protocols, enabling seamless integration into complex system architectures.

Packaged in a compact 1369-FCBGA (35x35) form factor, this Versal AI Core FPGA offers engineers a versatile, high-performance solution for developing advanced embedded systems requiring significant computational flexibility and robust real-time processing capabilities.

While direct equivalent models are manufacturer-specific, comparable alternatives within the AMD Xilinx Versal AI Core series might include models like XCVE2002, XCVE1752, and XCVE1702, each offering varying performance characteristics and integration capabilities.

XCVE1752-2MSENSVG1369 Key Technical Attributes

Manufacturer part number XCVE1752-2MSENSVG1369

Manufacturer AMD Xilinx

Series Versal AI Core

Main category Integrated Circuits ICs

Small classification Embedded System On Chip SoC

Architecture MPU and FPGA heterogeneous compute

Core processors Dual ARM Cortex A72 MPCore with CoreSight and Dual ARM Cortex R5F with CoreSight

Maximum CPU speeds 1.4 GHz A72 and 600 MHz R5F

On chip RAM 256 KB

Number of I O 500

Peripherals DDR DMA PCIe

Connectivity CANbus EBI EMI Ethernet I2C MMC SD SDIO SPI UART USART USB OTG

Operating temperature 0°C to 110°C TJ

XCVE1752-2MSENSVG1369 Packing Size

Package type 1369 FCBGA 35 x 35 mm

Alternate package listing 1369 BFBGA FCBGA

Supplier device package 1369 FCBGA 35 x 35 mm

Shipment package Tray

Ball count 1369 full array

Mounting type Surface mount BGA reflow compatible

Package material Organic substrate with lead free RoHS compliant solder balls

Pin configuration Ball grid array refer to datasheet for exact ball map and pitch

Thermal characteristics Junction temperature range 0°C to 110°C TJ use device thermal models and heatsinking for compliance

Electrical properties Multi rail power domains typical for Versal devices refer to datasheet for rail names voltage levels and sequencing

XCVE1752-2MSENSVG1369 Application

Edge AI inference and embedded acceleration

Industrial automation robotics motion control and PLC upgrade platforms

5G O RAN and fronthaul midhaul packet processing

Automotive domain control ADAS sensor fusion and gateway compute where applicable grade allows

Software defined radio radar and lidar signal processing

Smart cameras machine vision video analytics and video transport

High speed networking storage and PCIe acceleration cards

Aerospace and defense compute where COTS devices are suitable

XCVE1752-2MSENSVG1369 Features

- Heterogeneous compute platform that blends high performance application processing with adaptable hardware acceleration. The dual ARM Cortex A72 complex provides rich operating system support and user space applications, while the dual ARM Cortex R5F pair enables real time determinism for time critical control and safety tasks.

- Programmable logic fabric enables custom hardware pipelines, offload engines, and protocol bridging. This allows designers to move hot paths from software into adaptable logic to reduce latency and power and to increase throughput without changing board hardware.

- Integrated debug visibility via ARM CoreSight across both Cortex A and Cortex R cores, simplifying software bring up, trace, and performance optimization throughout development and field validation.

- Rich peripheral set including DDR memory interfaces, high performance DMA, and PCI Express for board to board and host acceleration use cases. The built in DMA engines reduce CPU overhead and maintain sustained data movement between memories, peripherals, and programmable logic.

- Comprehensive connectivity for embedded and edge systems including CANbus for industrial and automotive networks, EBI EMI for external memory interfaces, Ethernet for networking and TSN style applications, I2C for low speed control, MMC SD SDIO for removable or eMMC storage, SPI for sensor and peripheral attachment, UART USART for console and legacy integration, and USB OTG for device or host roles.

- Scalable performance with CPU frequencies up to 1.4 GHz on the Cortex A72 application cores and up to 600 MHz on the Cortex R5F real time cores, enabling strong single thread control and multicore workloads while keeping determinism where needed.

- High I O density with 500 user I O pins accessible through the 1369 ball package, allowing wide external connectivity, parallel interfaces, and plentiful control lines without resorting to complex expanders.

- Industrial grade junction temperature support from 0°C to 110°C TJ which allows reliable operation across challenging thermal environments when paired with appropriate thermal design, heatsinking, and airflow management.

- Flexible boot and system integration through standard interfaces such as SPI and SD with straightforward software enablement using AMD Xilinx toolchains and reference software platforms for rapid prototyping and production.

XCVE1752-2MSENSVG1369 Quality and Safety Features

- Manufactured by AMD Xilinx with rigorous wafer sort and final test screens to ensure device functionality, continuity, and parametric compliance before shipment.

- RoHS compliant and lead free solder balls per current environmental directives help simplify global compliance and manufacturing approvals.

- ESD sensitive device with handling and storage per JEDEC best practices recommended including grounded work surfaces, ESD safe packaging, and personnel protection.

- Moisture sensitivity and reflow considerations consistent with large FCBGA devices. Follow the MSL rating printed on the dry pack label, observe bake out guidance when required, and use controlled reflow profiles to protect package integrity.

- Full device traceability through lot and date coding on the shipping labels and documentation aids quality systems and field return analysis.

- Thermal reliability supported by published thermal models and guidelines. Use junction temperature monitoring and adequate heatsinking to maintain operation within the 0°C to 110°C TJ range.

- Security, functional safety, and ECC capabilities may be design selectable at the platform level. Consult the official datasheet and technical reference materials for details on memory protection options, isolation strategies, and secure design flows.

XCVE1752-2MSENSVG1369 Compatibility

- Design flow and tools compatibility with AMD Xilinx Vivado and Vitis for hardware and software development, including compilation of programmable logic, device configuration, and embedded software toolchains for ARM cores.

- Operating system and middleware support through common embedded stacks for ARM Cortex A platforms such as Linux and real time operating systems for Cortex R, aiding rapid software integration.

- Board level compatibility with footprints providing the 1369 FCBGA land pattern. Follow the recommended land grid, keep out zones, escape routing, and power decoupling practices from the package user guide.

- Interface level compatibility with standard protocols including CAN, Ethernet, PCIe, USB OTG, SPI, I2C, UART and SDIO, easing integration with commercial transceivers, PHYs, sensors, storage, and host systems.

XCVE1752-2MSENSVG1369 Datasheet PDF

Our website hosts the most authoritative and up to date datasheet for XCVE1752-2MSENSVG1369. For accurate electrical specifications, ball maps, power rail details, timing, and design guidelines, we strongly recommend downloading the datasheet directly from this product page.

Quality Distributor

IC-Components is a premium distributor for AMD Xilinx products. We provide genuine parts, competitive pricing, and responsive technical support to accelerate your design and supply chain. Get a fast quote for XCVE1752-2MSENSVG1369 on our website today and experience our trusted sourcing and service.

Frequently Asked Questions

What are the key considerations for integrating the AMD Xilinx XCVE1752-2MSENSVG1369 into a high-speed embedded system with multiple I/O interfaces?
When integrating the AMD Xilinx XCVE1752-2MSENSVG1369 into a high-speed embedded system, ensure that the power supply can support the device's voltage and current requirements, especially for DDR, PCIe, and Ethernet. Adequate signal integrity measures, such as controlled impedance for high-speed I/O lines, proper decoupling, and PCB layout practices, are critical. Match the I/O standards with the system's logic levels and maintain proper grounding and shielding to minimize noise. Confirm that the system’s clocking scheme supports the maximum speeds (up to 1.4 GHz) and consider the FPGA's thermal dissipation within the operational temperature range (0°C to 110°C).
Can the XCVE1752-2MSENSVG1369 be reliably used in industrial environments with extended operating temperature ranges?
Yes, the XCVE1752-2MSENSVG1369 is rated for an operational temperature range of 0°C to 110°C, making it suitable for many industrial applications. However, for extended or harsh industrial environments, ensure that the PCB design includes adequate thermal management, such as heatsinks, proper ventilation, and robust power supply filtering, to maintain stable operation over the entire temperature range. Also, verify that the device's long-term reliability specifications meet your application’s expected lifetime requirements.
How does the pin configuration and I/O count of 500 I/O impact the design layout in a system using the XCVE1752-2MSENSVG1369?
The 500 I/O lines offer significant flexibility but require careful pin assignment and PCB layout planning. Ensure that critical high-speed signals are routed with short, impedance-controlled traces, and group related I/O functions to minimize crosstalk. Utilize differential pairs where applicable, and allocate dedicated power and ground planes to reduce noise. The large number of I/O also necessitates a well-organized schematics and meticulous component placement to optimize signal integrity and manufacturability.
What should be considered when selecting a replacement or alternative for the AMD Xilinx XCVE1752-2MSENSVG1369, such as migrating to another FPGA or SoC?
When considering a replacement, evaluate the I/O compatibility, package type (1369-FCBGA), and thermal characteristics to ensure seamless integration. Crucial differences may include FPGA architecture, supported I/O standards, speed grade, and peripheral interfaces like PCIe and Ethernet. Confirm that the alternative device provides equivalent or improved performance and that the migration does not require extensive redesign of the PCB or firmware. Also, review vendor availability, support, and long-term supply commitments to mitigate supply chain risks.
How do the dual ARM Cortex-A72 MPCore and Cortex-R5F cores influence the power management and thermal considerations in system design?
The dual ARM Cortex-A72 cores and Cortex-R5F cores increase processing capabilities but also demand careful power and thermal management. Use dynamic voltage and frequency scaling (DVFS) features where available to optimize power consumption. Include sufficient cooling solutions, such as heat sinks and airflow, to dissipate the thermal load generated by the cores at peak operation (up to 1.4 GHz). Proper power sequencing and decoupling are essential to prevent voltage sag, which could impact core stability and longevity.
What are the critical PCB design tips to ensure signal integrity and minimize EMI when deploying the XCVE1752-2MSENSVG1369 in high-frequency applications?
To ensure signal integrity, prioritize controlled impedance routing for high-speed signals, especially for PCIe, Ethernet, and DDR interfaces. Use solid ground planes and separate analog and digital ground returns where applicable to reduce EMI. Maintain consistent trace lengths for differential pairs and critical signals, and include proper terminations. Implement proper power supply filtering and decoupling capacitors close to power pins to suppress noise. Proper shielding and placement of components can further reduce electromagnetic interference issues.
How does the choice of package (1369-FCBGA) affect the manufacturing process, especially regarding mounting and testing?
The 1369-FCBGA package requires precise reflow soldering with controlled temperature profiles to ensure proper attachment without damaging the die or BGA balls. During manufacturing, X-ray inspection or X-ray BOM verification is recommended to check for proper solder joint integrity. Due to the large pin count, automated test hooks and high-resolution testing fixtures are typically necessary for quality testing. Additionally, careful PCB pad design and controlled manufacturing processes are vital for reliable long-term operation.
What are the key design considerations for ensuring reliable long-term operation of the XCVE1752-2MSENSVG1369 in applications with continuous operation?
For long-term reliability, ensure stable power supply filtering and over-voltage protection. Incorporate sufficient thermal management solutions to prevent overheating and thermal cycling fatigue. Use high-quality PCB materials and maintain strict manufacturing tolerances to reduce mechanical stress. Design for ease of maintenance and potential future upgrades. Regular system calibration and environmental controls help maintain consistent performance over the device’s lifespan.
Are there any specific application scenarios where the XCVE1752-2MSENSVG1369 might not be suitable due to its architecture or features?
The XCVE1752-2MSENSVG1369 may not be ideal for applications requiring extremely low latencies, ultra-high-frequency operation beyond 1.4GHz, or power-constrained environments with strict energy budgets. Its integration complexity and the size of the package may pose challenges in space-constrained designs. Additionally, if the application requires specialized interfaces not supported by this device, like certain high-speed serial standards or cryptographic modules, alternative solutions should be considered.
How do I ensure compatibility of peripheral interfaces like USB OTG, Ethernet, and DDR with the XCVE1752-2MSENSVG1369 during system design?
To achieve compatibility, ensure that the FPGA’s peripheral interface standards match your system requirements, and plan for appropriate interface PHYs and connectors. Follow the recommended PCB layout guidelines for differential signals, impedance control, and shielding. Verify that power supplies and reference voltages for these peripherals are within specified ranges. Incorporate appropriate resets and protocol-specific configurations in your firmware to facilitate seamless integration and reliable operation of USB OTG, Ethernet, and DDR interfaces.

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