
You find that the XCV400E-7FG676C FPGA is special. It has a 1.8 V core voltage and boasts many I/O pins along with on-chip memory. This device is part of the Virtex-E family, which engineers trust for its reliability and flexibility. You can use this FPGA for fast and accurate work, making it ideal for applications in telecommunications and aerospace. The table below provides a complete overview of why many experts choose this device for digital design, giving you a full look at what this device can do.
| Specification | Value |
|---|---|
| Number of Logic Elements/Cells | 10800 |
| Total RAM Bits | 163840 |
| Number of I/O | 404 |
| Number of Gates | 569952 |
Key Takeaways
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The XCV400E-7FG676C FPGA has 10,800 logic cells. This lets you make complex digital systems easily.
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It has 404 programmable I/O pins. This helps the FPGA connect to many devices. It is good for lots of different projects.
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The FPGA uses a low core voltage of 1.8 V. This saves power but still gives strong performance.
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The FPGA can work very fast. It runs at clock speeds up to 400 MHz. This is great for quick applications.
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You can use the XCV400E-7FG676C in many industries. These include telecommunications, aerospace, and industrial automation. It gives steady and reliable performance.
XCV400E-7FG676C FPGA Complete Overview
What is the XCV400E-7FG676C FPGA?
The xcv400e-7fg676c is a strong fpga. It shows what new digital design can do. This fpga is from the xilinx virtex-e family. It can handle hard logic and fast data. You can also connect it to many things. The xcv400e-7fg676c fpga works well and has many cool features.
This fpga has about 10,800 logic cells. These help you make big digital systems. It also has 163,840 bits of RAM. This memory lets you keep and get data fast. There are 404 programmable I/O pins. These pins help you connect to sensors or other devices.
Here is a table that shows the main features of the xcv400e-7fg676c:
| Feature | Description |
|---|---|
| High-Density Logic Design | About 10,800 logic cells for building complex digital systems. |
| Virtex-E 1.8 V Architecture | Uses a 1.8 V core for better power use and speed. |
| SelectI/O+ Technology | Works with many I/O standards for easy use in fast digital links. |
| 404 Programmable I/O Pins | Has 404 I/O pins in a 676-ball BGA package for lots of connections. |
| Embedded Block RAM | Has about 163,840 bits of RAM for quick storage on the chip. |
| High-Speed Clock Performance | Can run at up to 400 MHz for fast systems. |
| Differential Signal Support | Supports LVDS and BLVDS for sending data quickly. |
| Power-Efficient Core Voltage | Runs at 1.8 V for good speed and low power use. |
The xcv400e-7fg676c fpga helps you make fast and strong digital systems. Many engineers pick this fpga for its features and speed.
Note: The xcv400e-7fg676c fpga is a top pick for projects that need to be fast and save power.
Virtex Family and CMOS Process
The xcv400e-7fg676c is part of the xilinx virtex-e family. This family is known for being reliable and advanced. When you use a virtex-e fpga, you get a device that works with many digital rules. It also works well in tough places. The virtex-e family uses a 1.8 V core voltage. This helps you save power and keep good speed.
The xcv400e-7fg676c fpga uses a 0.18-micron CMOS process. This makes the fpga faster and use less power. You get better speed and use less energy than older chips. The 0.18-micron process lets you fit more logic and memory on one chip.
Here is a table that compares the xcv400e-7fg676c fpga with other parts in the virtex family:
| Metric | XCV400E-7FG676C | Other Similar Parts |
|---|---|---|
| Number of Logic Cells | 10,800 | 10,800 |
| Total RAM Bits | 163,840 | 163,840 |
| Number of I/O Pins | 404 | 404 |
| Maximum Clock Frequency | ~400 MHz | ~400 MHz to ~450 MHz |
| Core Voltage | 1.8 V nominal | 1.8 V nominal |
You can trust the xcv400e-7fg676c fpga for projects that need lots of features and good performance. The virtex-e family and CMOS process give you a strong base for your digital systems. Many engineers trust xilinx for their important designs.
FPGA Features and Specifications
Key Features of XCV400E-7FG676C
The xcv400e-7fg676c fpga is special because it has lots of logic cells and advanced features. It is part of the virtex-e family from xilinx. This means it is made for strong performance and can be used in many ways. The design lets you make custom digital systems easily.
Here are some important things you should know:
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It has about 10,800 logic cells. You can build big circuits with them.
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There is 163,840 bits of memory on the chip. This helps you store and get data fast.
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It has 404 I/O pins in a 676-ball package. You can connect many devices at the same time.
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The core voltage is 1.8 V. This helps save power and keeps it fast.
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SelectI/O+ technology lets you use different I/O standards. This helps move data quickly.
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It supports differential signaling like LVDS and BLVDS. You can send data fast and with less noise.
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The architecture can be reprogrammed. You can change your design when you need to.
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There is block RAM built in for fast storage.
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It can run at clock speeds up to 400 MHz. Your projects can work fast and do hard jobs.
Tip: The xcv400e-7fg676c fpga gives you speed, flexibility, and saves power. You can use it for many digital projects.
Technical Specifications Table
You should check the specifications to see what this fpga can do. The table below shows the main details for the xcv400e-7fg676c. These facts help you compare it with other devices and pick the best one for your needs.
| Specification | Value |
|---|---|
| Family | Virtex-E |
| Manufacturer | Xilinx |
| Architecture | High-density, reprogrammable |
| Logic Cells | 10,800 |
| System Gates | 569,952 |
| On-chip Memory (bits) | 163,840 |
| Programmable Logic Blocks | Yes |
| I/O Pins | 404 |
| Core Voltage | 1.8 V |
| I/O Voltage | 1.5 V, 1.8 V, 2.5 V, 3.3 V |
| Maximum Clock Frequency | 400 MHz |
| Package Type | FG676 (Fine-Pitch BGA) |
| Operating Temperature Range | 0°C to 85°C |
| Process Technology | 0.18-micron CMOS |
| Reprogrammable | Yes |
You can see the xcv400e-7fg676c has lots of logic, memory, and I/O pins. This helps it work well in many different uses.
Pinout and Package Details
When you use the xcv400e-7fg676c fpga, you need to know about its pinout and package. It uses the FG676 package, which has 676 balls in a small grid. Out of these, 404 are I/O pins. This means you can connect many parts, sensors, or chips.
Here is a table that shows how the I/O pins compare to other models:
| Specification | XCV400E-7FG676C | XCV400E-7FG676I | XCV400E-8FG676C | XCV400E-7BG560C | XCV400E-7BG432C0773 | XCV400E-6FG676C |
|---|---|---|---|---|---|---|
| Ball Count / I/O Pins | 676 balls / 404 I/Os | 676 balls / 404 I/Os | 676 balls / 404 I/Os | 560 balls / 372 I/Os | 432 balls / 324 I/Os | 676 balls / 404 I/Os |

You can see the xcv400e-7fg676c has as many I/O pins as the top models. This is good if you need lots of connections.
The pinout has special pins for setup, clock, and testing. Here are some important pin names and what they do:
| Pin Name | Direction | Description |
|---|---|---|
| GCK0-3 | Input | These are for the main clock signals. |
| M0, M1, M2 | Input | These pick how the chip starts up. |
| CCLK | Input/Output | This is the clock for setup. |
| PROGRAM | Input | This pin starts the setup process. |
| DONE | Bidirectional | This shows when setup is finished. |
| INIT | Bidirectional | This shows when memory is being cleared. |
| D0-D7 | Input/Output | These are for setup data. |
| TDI, TDO, TMS, TCK | Mixed | These are for testing with JTAG. |
| VCCINT | Input | This gives power to the chip’s core. |
| VCCO | Input | This gives power to the outputs. |
| VREF | Input | This sets the input voltage level. |
| GND | Input | This is the ground pin. |
There are also pins for checking the temperature (DXN, DXP).
The FG676 package has a 26 × 26 grid and each ball is 1.00 mm apart. The body size is 27 mm by 27 mm and the height is about 2.40 mm. You need to use surface-mount technology to put this fpga on your board.
| Specification | Details |
|---|---|
| Package Type | FG676 (Fine-Pitch BGA) |
| Body Size (L × W) | 27 mm × 27 mm |
| Ball Pitch | 1.00 mm |
| Number of Balls | 676 |
| Ball Array | 26 × 26 grid |
| Package Height | 2.40 mm (typical) |
| Ball Diameter | 0.45 mm |
| Ball Height | 0.25 mm – 0.35 mm |
| Mounting Type | Surface Mount (FBGA) |
Note: The small package and lots of pins help you save space and make many connections. You can use this fpga in small and complex projects.
The xcv400e-7fg676c fpga gives you strong features and good specs. You can count on its design, memory, and logic for fast digital projects. The virtex-e family from xilinx is known for being flexible and easy to use.
Applications of XCV400E-7FG676C FPGA
Typical Use Cases
You can use the xcv400e fpga in lots of digital projects. This device helps when you need things to work fast and not break. People pick the xcv400e when they want speed and to change things easily. Here are some ways it is used:
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Telecommunications and networking gear use the xcv400e for moving data and handling signals. You can make network switches and routers with this fpga.
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Industrial automation uses the xcv400e to run robots and PLCs. You can control sensors and machines very well.
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Aerospace and defense need strong chips. The xcv400e works in radar and airplane controls.
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Digital signal processing gets better with the xcv400e. You can work with sound and filter signals easily.
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Data acquisition systems use the xcv400e to collect and handle lots of inputs at once.
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Communication interfaces and protocol bridges use this fpga for special designs.
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Embedded system prototyping is easier with the xcv400e. You can try out new ideas fast.
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Instrumentation and control modules use the xcv400e for timing and measuring data.
Tip: Pick the xcv400e fpga if your project needs to move data fast and work all the time.
Industry Applications
You find the xcv400e fpga in many types of jobs. Each industry uses this device for different things. The table below shows where the xcv400e is used and what it does:
| Industry | Applications |
|---|---|
| Telecommunications | Optical network switches, routers, baseband processors |
| Industrial Automation | Robotics, motor drives, PLCs |
| Aerospace and Defense | Radar processing, avionics control, secure communication modules |
| Digital Signal Processing | Audio processing, waveform generation, digital filtering |
| Data Acquisition | Test and measurement equipment, parallel data handling |
| Communication Interfaces | Custom interfaces, protocol converters |
| Embedded System Prototyping | Prototyping, architecture evaluation |
| Instrumentation and Control | Synchronized control, data measurement |
You see the xcv400e fpga in fast systems. These jobs need strong chips that can change and keep working. You can count on this device to work well even in hard places.
Comparison, Programming, Pros and Cons
Comparison with Similar FPGAs
You might want to know how the xcv400e is different from other fpga models in the Virtex family. The xcv400e-7fg676c is special because it has a -7 speed grade and a big 404-pin BGA package. These things help it work fast and let you connect many devices. You can use this fpga for jobs that need lots of speed and power. Other Virtex-E models are a lot like it, but the xcv400e-7fg676c gives you a good mix of speed, price, and features. It works well for digital systems that need to move data quickly and connect to many things.
Programming Steps
You can program the xcv400e fpga by doing these steps:
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First, make your logic design with VHDL, Verilog, or a schematic tool. Then, turn your design into a gate-level netlist.
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Next, map your logic to the fpga’s parts. Make sure the timing is good and pick the I/O pins.
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After that, make a bitstream file with the setup data.
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Then, pick JTAG or outside memory for setup. Get your wires ready.
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Now, connect the programming cable. Pick the right device ID.
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Load the bitstream into the fpga’s memory.
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Test your design to see if it works right.
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Check that your design meets timing and signal needs.
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Test startup if you use outside memory.
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Write down your steps and save your files.
You can use special tools to help with these steps. The table below shows two tools you can use:
| Development Tool | Purpose |
|---|---|
| Xilinx ISE Design Suite | Synthesis and place-and-route |
| iMPACT | Device configuration and JTAG programming |
Advantages and Disadvantages
You should look at the main good and bad points before you pick the xcv400e fpga for your project.
Advantages:
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It works fast for tough computing and quick digital systems.
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The design lets you use many features and connect lots of things.
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You can change the fpga for different jobs.
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The tools are easy to use and work with many designs.
Disadvantages:
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The big package might need more space on your board.
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Some new fpga models have even more features.
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It can use more power in some jobs.
Tip: Pick the xcv400e-7fg676c fpga if you want strong speed, a flexible design, and good support for making your project.
Packaging and Manufacturer Info
Package Dimensions
You need to know the size and shape of the XCV400E-7FG676C before you start your design. This device comes in a Fine-Pitch Ball Grid Array (FG676) package. The package has 676 tiny balls arranged in a 26 by 26 grid. Each ball sits 1.00 mm apart. The body of the package measures 27 mm by 27 mm. The height is about 2.40 mm. You use surface-mount technology to place this chip on your circuit board.
Here is a table that shows the main package details:
| Feature | Value |
|---|---|
| Package Type | FG676 (FBGA) |
| Ball Count | 676 |
| Ball Pitch | 1.00 mm |
| Body Size | 27 mm × 27 mm |
| Grid Size | 26 × 26 |
| Package Height | 2.40 mm |
| Mounting Type | Surface Mount |
Tip: You should check your board layout and make sure you have enough space for the package. The small ball pitch helps you save space and connect many signals.
Manufacturer and Ordering
You can buy the XCV400E-7FG676C from Xilinx, which is now part of AMD. Xilinx makes reliable chips for many industries. You find this fpga listed on official distributor websites. You can order samples or production quantities. Most distributors show real-time stock levels and lead times.
Here is a simple list to help you order:
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Visit the Xilinx or AMD website for product details.
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Check authorized distributors like Digi-Key, Mouser, or Avnet.
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Search for the part number "XCV400E-7FG676C".
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Review the datasheet and technical documents before you buy.
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Ask for a quote if you need many units.
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Track your order and delivery status online.
Note: You should always buy from trusted sources to avoid counterfeit parts. If you need technical help, Xilinx offers support and design resources.
You can find the XCV400E-7FG676C in stock at major distributors. You get fast shipping for small orders. For large projects, you can request special pricing and delivery options.
You now know the XCV400E-7FG676C FPGA gives you high logic density, fast speeds, and flexible I/O options. You can use it in fields like telecom, automation, and aerospace. This knowledge helps you make smart choices for your next project.
Keep learning and testing to get the best results from your FPGA designs.

Written by Jack Elliott from AIChipLink.
AIChipLink, one of the fastest-growing global independent electronic components distributors in the world, offers millions of products from thousands of manufacturers, and many of our in-stock parts is available to ship same day.
We mainly source and distribute integrated circuit (IC) products of brands such as Broadcom, Microchip, Texas Instruments, Infineon, NXP, Analog Devices, Qualcomm, Intel, etc., which are widely used in communication & network, telecom, industrial control, new energy and automotive electronics.
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Frequently Asked Questions
What makes the XCV400E-7FG676C FPGA suitable for complex designs?
This FPGA has lots of logic blocks. You can use them to make hard digital circuits. These blocks help you do tough jobs easily.
How do you connect different devices to the XCV400E-7FG676C?
This FPGA gives you many ways to connect things. You can hook up sensors, memory chips, and other digital parts without problems.
This FPGA gives you many ways to connect things. You can hook up sensors, memory chips, and other digital parts without problems.
This FPGA gives you many ways to connect things. You can hook up sensors, memory chips, and other digital parts without problems.
This FPGA gives you many ways to connect things. You can hook up sensors, memory chips, and other digital parts without problems.
Yes, you can change the FPGA after you install it. This lets you fix mistakes or add new things when you want.













