5CEBA5F23C7N

Series:	Cyclone® V E
Part Status:	Active
Lead Free Status / RoHS Status:	--
Number of LABs/CLBs:	29080
Moisture Sensitivity Level (MSL):	--
Number of Logic Elements/Cells:	77000
Total RAM Bits:	5001216
Number of I/O:	240
Voltage - Supply:	1.07 V ~ 1.13 V
Mounting Type:	Surface Mount
Operating Temperature:	0°C ~ 85°C (TJ)
Package / Case:	484-BGA
Supplier Device Package:	484-FBGA (23x23)
Base Part Number:	5CEBA5

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Introduction

Field Programmable Gate Array (FPGA) is a semiconductor device consisting of programmable logic gates and memory elements, which can be configured by a user to implement custom logic functions. FPGAs have become widely used in embedded systems, providing flexibility and power efficiency that traditional ASICs and integrated circuits may not. The development of FPGAs is reliant on advancements in nanotechnology, which allows for the building of increasingly sophisticated and accurate logic structures.

History and Design of FPGAs

The first FPGAs were patented in 1971 by Ross Freeman and Ronald Groves. However, FPGAs only began to be widely used in the late 1980s, when advances in nanotechnology allowed increasingly sophisticated and accurate logic structures to be built on smaller and smaller chips. Today, FPGAs are widely used in a variety of embedded systems, ranging from automotive electronics to communications, aerospace and defense systems.The main components of an FPGA are logic cells, which are programmable logic gates, memory blocks, and interconnects. Logic cells are the most important component of an FPGA, as they are used to implement the user-defined logic functions. The interconnects are used to connect the logic cells, allowing them to be arranged in a network of complex functions and operations. The memory blocks are used for the storage of data and instructions.

Advantages of Using FPGAs

FPGAs have several distinct advantages over traditional ASICs and integrated circuits when it comes to embedded systems. First of all, FPGAs can be quickly reprogrammed and reconfigured to accommodate changing system requirements, whereas traditional ASICs and ICs are static, requiring new chips to be fabricated in order to modify their behavior. This makes FPGAs much more well-suited for rapid prototyping and product development. Second, FPGAs offer advantages in terms of power efficiency. As the logic cells are only active when the functionality they are implementing is required, FPGAs consume much less power than traditional ASICs and ICs. This makes FPGAs especially well-suited for use in battery-powered devices and other applications where power conservation is paramount.Finally, FPGAs offer scalability and flexibility, allowing designers to add more logic cells in order to accommodate larger designs, or to reduce the number of logic cells to save on power and cost. This allows developers to tailor the size and complexity of the FPGA to their specific design requirements.

Conclusion

Field Programmable Gate Array (FPGA) technology has had a significant impact on the field of embedded systems. FPGAs offer flexibility, power efficiency, scalability and the ability to rapidly modify designs, making them the ideal choice for a wide range of embedded applications. As technology advances, FPGAs will become increasingly powerful and sophisticated, expanding their use even further.

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