EP20K200EFC672-1N

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EP20K200EFC672-1N Application Field and Working Principle

Embedded Field Programmable Gate Arrays, more commonly known as FPGA, are integrated circuits with a wide range of application fields. One such FPGA is the EP20K200EFC672-1N, which is a device designed for use in a variety of applications, ranging from single-function systems to high-speed communication systems. The following article will provide an overview of the EP20K200EFC672-1N application field and working principle.

Application Field

The EP20K200EFC672-1N is widely used in applications where reconfigurability, low power consumption and small form factor are required. It is the perfect choice for integration in embedded systems, industrial motor control, communications, and medical imaging and other complex applications that require reliable operation and lower system cost.

Since FPGAs are pre-programmed to perform specific tasks on the application level, multiple applications can be implemented on a single FPGA. This makes FPGA a perfect choice for embedded applications, as they can be easily programmed and reprogrammed in order to accommodate changing requirements.

The EP20K200EFC672-1N is a specific type of FPGA that enables powerful, low-power solution for high-speed applications. It combines a small form factor (8 mm x 10 mm) and low power consumption (2.0W max at 200 MHz) with a high performance density (1.505 million logic cells). The logic cells are divided into two categories: the large embedded cells and the standard cells. The large embedded cells are optimized for applications requiring fast execution, while the standard cells are designed for automated designs.

Working Principle

FPGAs are composed of arrays of programmable logic elements, also known as Logic Cells, arranged in a grid. The EP20K200EFC672-1N FPGA utilizes two types of logic cells to perform its functions: the large embedded cells and the standard cells. The large embedded cells are optimized for high performance, low power consumption and fast execution, while the standard cells are optimized for automated designs, allowing for simplified and faster programming of the FPGA.

The logic cells are connected to node signals via routing resources. Node signals transport data between logic cells and link the logic cells together. This means that data can be transferred between logic cells even though they are not adjacent eachother. The routing resources may also be used to create custom datapaths. This can be useful for implementing communication protocols or for specialized mathematic operations.

The most basic unit of the EP20K200EFC672-1N is the logic cell. Each logic cell contains two 4-input Lookup Tables (LUTs), two flip-flops, two carry chains and two multiplexers. The LUTs and the the flip-flops are the two fundamental building blocks of the logic cells. The LUTs are used to store logic functions and the flip-flops are used to store data.

The two LUTs can be combined to form a single 8-input LUT. The two flip-flops are dual-edge triggered, meaning that data is stored on both the rising edge and falling edge of the clock signal. The two multiplexers are used to route the data from the LUTs to the flip-flops. The two carry chains can be used to propagate logic functions from one logic cell to another.

The EP20K200EFC672-1N FPGA can be programmed in multiple ways. The most common method is to use a logic synthesis tool such as the Xilinx Vivado Design Suite to generate the HDL (Hardware Description Language) code of the design. This code can then be transferred to the FPGA for program execution.

The EP20K200EFC672-1N is a powerful and versatile FPGA used in a variety of embedded applications. With a combination of low power consumption, a small form factor, and a high performance density, it has become one of the most popular FPGAs on the market today.

The EP20K200EFC672-1N FPGA can be used for applications ranging from single-function systems to high-speed communication systems. Its reconfigurability, low power consumption and small form factor make it a perfect choice for integration in embedded systems, industrial motor control, communications, and medical imaging and other complex applications that require reliable operation and lower system cost.

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