5CGXFC7C6F23I7N IC

Technical Specifications of 5CGXFC7C6F23I7N

Datasheet	5CGXFC7C6F23I7N datasheet
Category	Integrated Circuits (ICs)
Family	Embedded – FPGAs (Field Programmable Gate Array)
Manufacturer	Altera
Series	Cyclone? V GX
Part Status	Active
Number of LABs/CLBs	56480
Number of Logic Elements/Cells	149500
Total RAM Bits	7880704
Number of I/O	240
Number of Gates	–
Voltage – Supply	1.07 V ~ 1.13 V
Mounting Type	Surface Mount
Operating Temperature	-40°C ~ 100°C (TJ)
Package / Case	484-BGA
Supplier Device Package	484-FBGA (23×23)

Introduction

FPGAs (Field Programmable Gate Arrays) have changed the way digital design and embedded systems work by giving them more flexibility and speed than ever before for a wide range of uses. The Cyclone® V GX stands out as a powerful and flexible solution among the top FPGA families. It can be used in a wide range of businesses and projects.

The Intel (formerly Altera) Cyclone® V GX family is a big step forward in FPGA technology. It gives designers a stable platform on which to apply complex digital designs, speed up algorithms, and build high-performance systems. It is a good choice for engineers and developers who want to push the limits of hardware creation because it has a unique set of features and abilities.

One of the most notable Cyclone® V GX models is the one with the number 5CGXFC7C6F23I7N. Let’s take a quick look at its main features:

• 149500 Cells: “Cells” are the basic building parts of an FPGA. They are made up of logic elements that can be changed and other functional units. The 5CGXFC7C6F23I7N FPGA model has a huge number of cells: 149,500. This gives you a lot of room to build complex circuits and work on big projects.
• 28nm Technology: The 28nm (nanometer) technology node refers to the way the FPGA was put together. A smaller process node means that there are more levels of connectivity, the performance is better, and there is less waste of power. By using 28nm technology, the 5CGXFC7C6F23I7N strikes a balance between speed and power consumption, making it useful for a wide range of applications.
• 1V Operating Voltage: The FPGA runs at a low voltage of 1.1V, which helps it save power and reduces the amount of power it uses in total. This is especially important for uses that are power-sensitive or designs that aim for energy-efficient solutions.

The 5CGXFC7C6F23I7N FPGA comes in a Fine-Pitch Ball Grid Array (FBGA) package with 484 pins. The FBGA package has a high density of pins, which makes it easy to route data and makes it possible to make small circuit boards.

Overview of FPGA Technology

Definition of FPGA

A semiconductor device called a Field Programmable Gate Array (FPGA) enables users to modify and change the hardware functionality of the device after it has been manufactured. FPGAs offer programmable logic and interconnect that may be tailored to implement different digital circuits, functions, and algorithms, in contrast to Application-Specific Integrated Circuits (ASICs), which are fixed and hardwired.

Advantages of FPGA

● Hardware Prototyping

FPGAs are frequently used for digital design quick prototyping. They help engineers save time and money in the design process by allowing them to test and validate their hardware concepts before committing to ASIC fabrication.

● Acceleration

FPGAs can be used to accelerate specific computationally-intensive tasks. By implementing FPGAs, which are specialized hardware accelerators, may carry out some tasks far more quickly than conventional CPUs, leading to notable performance advantages in niche applications like image processing, cryptography, and machine learning.

● Reconfigurability

The ability to reconfigure FPGAs “on the fly” is one of its main benefits. This adaptability enables run-time dynamic adjustments as well as iterative design upgrades and requirement-driven adaptation. Applications, where the functionality needs to be frequently or remotely changed, can benefit the most from it.

Historical Development of FPGA Technology

Although the idea of programmable logic has been around since the 1960s, the first FPGA that was commercially available only appeared in the early 1980s. The first FPGA dubbed the XC2064, was released by Xilinx, which was established in 1984. Although it had a tiny capacity, it signaled the start of a new age in digital design.

FPGA technology advanced quickly during the 1980s and 1990s with the advent of bigger, more powerful devices. Additionally, new industry entrants like Altera (now a part of Intel) encouraged competition and innovation. FPGA architecture underwent substantial improvements in the early 2000s, allowing for more intricate designs and advanced degrees of integration.

FPGAs are currently pushing the limits of performance and capacity. To meet the needs of various applications, they add more sophisticated process nodes, better interconnect technologies, and specialized hardware blocks (such as DSP blocks and embedded memory) with each successive generation.

5CGXFC7C6F23I7N Applications in Various Industries

FPGAs are used in a variety of different industries, such as:

• Telecommunications: Used in base stations, routers, switches, and other networking hardware to efficiently handle data processing and protocol conversions.
• Automotive: Used for real-time data processing and safety-critical operations in advanced driver assistance systems (ADAS), infotainment systems, and engine control units (ECUs).
• Aerospace and Defense: Used in mission-critical signal processing, encryption, and communication systems for radar systems.
• Industrial automation: Used for process control, monitoring, and industrial automation in PLCs (Programmable Logic Controllers).
• Consumer electronics: Used for video processing and multimedia applications in TVs, set-top boxes, and gaming consoles.

Basic Architecture of an FPGA

An FPGA consists of three main components

The basic components of an FPGA are called Configurable Logic Blocks (CLBs). Look-up tables (LUTs), which may implement any logic operation, flip-flops for data storage, and multiplexers for signal routing make up CLBs.

• Interconnects: The CLBs, I/O blocks, and other specialty blocks in the FPGA are connected by interconnects, which create a mesh-like network. They make it possible for signals to be routed across various parts of the gadget, allowing data to flow throughout it.
• I/O blocks: These blocks serve as the FPGA’s interface to the outside world. They make it easier to communicate with other digital circuits, memory, sensors, and other external devices.

How FPGAs Differ from Traditional CPUs and GPUs

FPGAs differ from traditional CPUs and GPUs in their architecture and application domains:

• Bespoke Logic: FPGAs are extremely flexible and may be adjusted to provide bespoke logic for a variety of applications. The fixed instruction sets and architectures of CPUs and GPUs are designed for general-purpose computation.
• Through the simultaneous distribution of jobs across several logic blocks, FPGAs excel in parallel processing. Although they are primarily tailored for graphics processing, GPUs are also intended for parallelism.
• Performance-per-Watt: Because they may use specialized hardware accelerators, FPGAs frequently offer superior performance-per-watt for particular activities. More suited to general-purpose computing are CPUs and GPUs.
• Reconfigurability: Unlike CPUs and GPUs, FPGAs can be repeatedly reprogrammed, enabling them to adapt to various tasks or enhance their capabilities without having to change the hardware.

Architecture and Resources of 5CGXFC7C6F23I7N FPGA

The Cyclone® V GX family’s 5CGXFC7C6F23I7N FPGA features an advanced architecture with logic parts, embedded multipliers, and memory blocks for challenging digital designs. It offers plenty of resources for user designs, including RAM, DSP blocks, and PLLs. The FPGA’s capacity to be reconfigured allows for flexibility, adaptation to shifting demands, and hardware acceleration, but it also necessitates meticulous design verification and specialist knowledge. It provides a strong and adaptable overall solution for numerous digital design applications.

Conclusion

In conclusion, the 5CGXFC7C6F23I7N FPGA Cyclone® V GX family offers a powerful and versatile solution for modern digital design applications. With its abundance of resources and reconfigurability, it enables designers to create high-performance systems across various industries. Embrace the possibilities of FPGA technology, and explore its potential for innovation and hardware acceleration.

For those interested in obtaining the 5CGXFC7C6F23I7N FPGA at an affordable price, ICRFQ, a leading electronic component distributor in China, offers this remarkable FPGA model. Don’t miss the opportunity to harness the full potential of this cutting-edge technology with support from a trusted supplier.

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