CY7C1472V25-200AXC

Product Overview

Category

The CY7C1472V25-200AXC belongs to the category of integrated circuits (ICs).

Use

This IC is commonly used in electronic devices for various applications such as data storage, communication systems, and embedded systems.

Characteristics

• High-speed performance: The CY7C1472V25-200AXC operates at a high clock frequency, enabling fast data processing.
• Large capacity: This IC offers a significant amount of memory storage, allowing for the handling of large amounts of data.
• Low power consumption: It is designed to minimize power usage, making it suitable for battery-powered devices.
• Reliable operation: The CY7C1472V25-200AXC is known for its stability and durability, ensuring consistent performance over time.

Package

The CY7C1472V25-200AXC is available in a compact and standardized package, which facilitates easy integration into circuit boards. The specific package type may vary depending on the manufacturer.

Essence

The essence of the CY7C1472V25-200AXC lies in its ability to provide high-speed and reliable data storage capabilities within a compact form factor.

Packaging/Quantity

The IC is typically sold in reels or trays, with each reel or tray containing a specific quantity of units. The exact packaging and quantity may vary based on the supplier.

Specifications

• Model: CY7C1472V25-200AXC
• Memory Type: Static Random Access Memory (SRAM)
• Capacity: 1,472 kilobits (184 x 8 bits)
• Operating Voltage: 2.5V
• Access Time: 200 nanoseconds
• Interface: Parallel
• Operating Temperature Range: -40°C to +85°C
• Pin Count: 32

Detailed Pin Configuration

The CY7C1472V25-200AXC features 32 pins, each serving a specific function within the IC. The pin configuration is as follows:

1. VCC - Power supply voltage
2. GND - Ground reference
3. A0-A7 - Address inputs
4. CE - Chip enable
5. OE - Output enable
6. WE - Write enable
7. I/O0-I/O7 - Data input/output lines
8. NC - No connection (reserved)
9. A8-A11 - Address inputs
10. A12-A15 - Address inputs
11. A16-A18 - Address inputs
12. A19 - Address input
13. A20 - Address input
14. A21 - Address input
15. A22 - Address input
16. A23 - Address input
17. A24 - Address input
18. A25 - Address input
19. A26 - Address input
20. A27 - Address input
21. A28 - Address input
22. A29 - Address input
23. A30 - Address input
24. A31 - Address input
25. VCC - Power supply voltage
26. GND - Ground reference
27. NC - No connection (reserved)
28. NC - No connection (reserved)
29. NC - No connection (reserved)
30. NC - No connection (reserved)
31. NC - No connection (reserved)
32. NC - No connection (reserved)

Functional Features

The CY7C1472V25-200AXC offers the following functional features:

• High-speed data access: With an access time of 200 nanoseconds, this IC enables rapid retrieval and storage of data.
• Easy integration: The parallel interface simplifies the integration process into existing circuit designs.
• Low power consumption: The IC is designed to operate efficiently, minimizing power usage and extending battery life in portable devices.
• Reliable operation: The CY7C1472V25-200AXC ensures stable and consistent performance, making it suitable for critical applications.

Advantages and Disadvantages

Advantages

• High-speed performance allows for efficient data processing.
• Large memory capacity enables handling of substantial amounts of data.
• Low power consumption makes it suitable for battery-powered devices.
• Reliable operation ensures consistent performance over time.

Disadvantages

• Limited compatibility with certain interface standards.
• Higher cost compared to alternative memory solutions.
• Requires careful handling due to sensitivity to electrostatic discharge (ESD).

Working Principles

The CY7C1472V25-200AXC operates based on the principles of static random access memory (SRAM). It stores data using a network of flip-flops, which retain their state as long as power is supplied. When an address is provided, the IC retrieves the corresponding data from the memory array and outputs it through the data lines. Read and write operations are controlled by specific control signals, such as chip