EP1K50FC484-1N

Product Overview

Category: Integrated Circuit (IC)

Use: The EP1K50FC484-1N is a programmable logic device (PLD) that belongs to the family of Field-Programmable Gate Arrays (FPGAs). It is designed for use in various electronic applications that require high-speed digital signal processing and complex logic functions.

Characteristics: - High-performance FPGA with 1,536 logic elements - 50,000 usable gates - 3.3V core voltage - 484-pin FineLine BGA package - Low power consumption - Fast data transfer rates - Flexible and reprogrammable design

Package and Quantity: The EP1K50FC484-1N is available in a FineLine BGA package, which consists of a small, square-shaped chip with 484 solder balls on the bottom. Each package contains one unit of the EP1K50FC484-1N FPGA.

Specifications

• Logic Elements: 1,536
• User Gates: 50,000
• Core Voltage: 3.3V
• Package Type: FineLine BGA
• Package Pins: 484
• Maximum Operating Frequency: 250 MHz
• Programmable I/Os: 144
• Block RAM Bits: 1,152 Kbits
• Total RAM Bits: 1,152 Kbits
• Embedded Multiplier Blocks: 32
• Maximum User I/Os: 114

Pin Configuration

The EP1K50FC484-1N has a total of 484 pins arranged in a specific configuration. The pinout diagram below illustrates the detailed pin configuration of the FPGA:

Functional Features

• High-speed digital signal processing capabilities
• Complex logic functions implementation
• Reprogrammable design allows for flexibility and customization
• Low power consumption for energy-efficient applications
• Fast data transfer rates enable real-time processing
• Embedded multiplier blocks for efficient multiplication operations

Advantages and Disadvantages

Advantages: - High-performance FPGA suitable for demanding applications - Flexible and reprogrammable design eliminates the need for hardware changes - Low power consumption reduces energy costs - Fast data transfer rates enable real-time processing - Embedded multiplier blocks enhance computational capabilities

Disadvantages: - Limited number of user gates compared to larger FPGAs - Higher cost compared to simpler programmable logic devices - FineLine BGA package may require specialized equipment for soldering and handling

Working Principles

The EP1K50FC484-1N FPGA operates based on the principles of digital logic. It consists of a large number of configurable logic elements that can be interconnected to perform complex computations and implement various digital functions. The device can be programmed using Hardware Description Languages (HDLs) such as VHDL or Verilog, allowing users to define the desired functionality.

During operation, the FPGA reads the configuration data from an external memory device and configures its internal circuitry accordingly. This enables the FPGA to execute the programmed logic functions and process incoming data in real-time.

Application Field Plans

The EP1K50FC484-1N FPGA finds applications in a wide range of fields, including but not limited to:

1. Telecommunications: Used in high-speed data transmission systems, network routers, and switches.
2. Industrial Automation: Employed in control systems, robotics, and factory automation.
3. Aerospace and Defense: Utilized in radar systems, avionics, and military communication equipment.
4. Medical Electronics: Integrated into medical imaging devices, patient monitoring systems, and diagnostic equipment.
5. Automotive: Used in advanced driver assistance systems (ADAS), engine control units (ECUs), and infotainment systems.

Alternative Models

1. EP2K30FC484-1N: A higher-capacity FPGA with 2,304 logic elements and 30,000 usable gates.
2. EP4CE115F29C7N: A newer generation FPGA with 115,200 logic elements and 29,440 usable gates.
3. EP3C40F780C8N: An intermediate-level FPGA with 40,320 logic elements and 78,336 usable gates.

These alternative models offer different capacities and features to cater to various application requirements.

In conclusion, the EP1K50FC484-1N is a high-performance FPGA that provides flexibility, speed, and computational power for a wide range of digital applications. Its reprogrammable nature, low power consumption, and fast data transfer rates make it an ideal choice for demanding electronic designs.