(13 products available)
There are several types of Xilinx Virtex 7, which differ in capacity, I/O density, and application. The following outlines the main types:
XC7V2000T
The XC7V2000T FPGA is a key device in the Virtex-7 range since it balances performance with abundant logic resources. It has 2 million logic cells and provides 6.8 billion system gates and 1,050 Mbps of transceiver data rate. The I/O density is also high, featuring 1,200 programmable I/Os. The main feature that sets this part apart is the capability in dense computing applications. The architecture makes it ideal for applications in video and image processing.
XC7V1100T
This FPGA comes next in logic density, offering 1.1 million logic cells. This device is preferred in applications that might not need as high a capacity but require high data throughput. This is an important factor in telecom or high-speed data transfer. Other features include 640 DSP slices and 1,020 Mbps of a transceiver data rate. Users in mid-range systems requiring efficiency would utilize this component.
XC7V585T
The XC7V585T offers 585K logic cells. Its strengths are the large number of high-speed serial transceivers and DSP slices, though. The device has 32 DSP slices and 740 Mbps of a transceiver data rate. Thus, this FPGA suits wireless base stations, aerospace, and defense applications with specific needs for signal processing.
XC7V410T
The XC7V410T has a small logic density than the others but remains powerful for many tasks. It has 410K logic cells, 28 DSP slices, and 1,000 Mbps transceiver data rate. This device works well in moderate-density applications with substantial serial communication needs. This chip is widely used in industrial control systems, communication equipment, and data centers.
XC7V200T
The XC7V200T offers the same logic capacity as the other devices in the series, which is 200K logic cells. It provides 400 Mbps of transceiver data rates. While this device has relatively fewer resources, it nonetheless supports many applications in automotive electronics, commercial infotainment systems, and A/V streaming.
Kintex-7
The Kintex-7 FPGA provides a good performance/watt ratio. It also carries 1.5 million logic cells and supports 1,500 Mbps transceiver data rates, hence ideal for mid-tier applications needing efficiency.
The main purpose of the Xilinx {{strong|Virtex 7}} FPGA is to implement many complex tasks in modern electronic systems.
Virtex-7's standout features include the following:
Virtex-7 works by configuring its programmable logic blocks (PLBs) to implement specific functions defined by the user's design. Note that interconnecting these PLBs forms various circuits to process signals. The device's high-speed I/Os facilitate communication with external components, while the advanced transceivers support data transmission along several channels. DSP blocks, on the other hand, accelerate signal processing tasks, thus optimizing performance.
Xilinx's commercial viability is largely due to its versatility and performance in many applications. Here are some key points to consider:
Xilinx Virtex 7 applications are widely characterized by telecommunications, data centers, military systems, and industrial automation.
The critical specifications of the {{strong|Xilinx Virtex}} include logic density, programmable I/Os count, DSP block number, and transceiver speed. Major features of the chip are summarized as follows:
Model | Logic Cells | I/O Count | DSP Slices | Maximum Transceiver Rate |
---|---|---|---|---|
XC7V2000T | 2M | 1,200 | 80 | 1,050 Mbps |
XC7V1100T | 1.1M | 640 | 64 | 1,020 Mbps |
XC7V585T | 585K | 480 | 32 | 740 Mbps |
XC7V410T | 410K | 400 | 28 | 1,000 Mbps |
XC7V200T | 200K | 240 | 16 | 400 Mbps |
Users must ensure that the surrounding environment does not exceed the given limits of temperature and humidity. The device operates best when the temperature is between 0 and 85 degrees Celsius and the humidity is within a 10 to 90% range. Outside these ranges, the device might malfunction or get damaged.
Another aspect of maintenance is the need to avoid static electricity discharges when handling the device. Electrostatic discharges can damage the internal components of the model and cause loss of information or reduced functionality.
Users need to ensure that any updates to the operating system or development tools are compatible with the system. This ensures the recorded performances of the device are sustained. Apart from this, several design data backups should be done to prevent loss in case of hardware or software failures. Note that maintaining an updated backup of design configurations is essential for quick recovery during unforeseen circumstances.
Virtex-7 Integrated Circuits benefit from various services offered by {{strong|Xilinx}}. The support resources encompass technical assistance across diverse queries, from design challenges to troubleshooting. They have a myriad of online resources, including user guides, application notes, and a frequently asked questions section. These resources provide detailed information on various aspects of the chip.
Another form of service is the community forums, where users can ask questions and get responses based on personal experience.
Lastly, Xilinx offers warranty services for their products. This covers the ICs from defects in manufacturing and serves as a guarantee for the product's quality and reliability.
A1: Yes, the Virtex 7 is widely applied in telecommunication, data processing, video analytics, and various commercial applications.
A2: The IC's major benefits include flexibility, high-speed data processing, advanced connectivity, and efficient parallel processing.
A3: It has many high-speed transceivers, programmable I/Os, and serial interfaces, facilitating seamless integration with many devices.
A4: Users rely on the Vivado Design Suite to design, simulate, and deploy applications on the device. The suite provides extensive design and implementation options.
A5: The FPGA supports multiple configurations, like bitstream loading, partial reconfiguration, and config via JTAG, Ethernet, or serial interfaces.