SI5338C-B05006-GMR

Basic Information Overview

• Category: Integrated Circuit
• Use: Clock Generator and Multiplier
• Characteristics: High-frequency precision, low jitter, programmable output frequencies
• Package: 20-QFN (4x4)
• Essence: Clock generation and multiplication for various electronic systems
• Packaging/Quantity: Tape and Reel, 2500 units per reel

Specifications and Parameters

• Input Voltage Range: 2.375V to 3.63V
• Output Frequency Range: 1kHz to 808MHz
• Output Format: LVCMOS, LVDS, HCSL, or LVPECL
• Programmable Features: Output frequency, output format, spread spectrum modulation, etc.
• Operating Temperature Range: -40°C to +85°C

Detailed and Complete Pin Configuration

The SI5338C-B05006-GMR has a total of 20 pins. The pin configuration is as follows:

1. VDDO
2. VDDO
3. GND
4. OUT0_N
5. OUT0_P
6. GND
7. OUT1_N
8. OUT1_P
9. GND
10. OUT2_N
11. OUT2_P
12. GND
13. OUT3_N
14. OUT3_P
15. GND
16. SDA
17. SCL
18. GND
19. VDDI
20. VDDI

Functional Characteristics

• Flexible clock generation and multiplication
• Low phase noise and jitter
• High-frequency precision
• Wide output frequency range
• Programmable features for customization
• Spread spectrum modulation support
• Easy integration into various electronic systems

Advantages and Disadvantages

Advantages: - High-frequency precision ensures accurate timing for electronic systems - Low jitter improves signal integrity and reduces data errors - Programmable features allow customization for specific applications - Wide output frequency range supports diverse system requirements

Disadvantages: - Requires careful configuration to optimize performance - Limited number of output channels compared to some other clock generators

Applicable Range of Products

The SI5338C-B05006-GMR is suitable for a wide range of electronic products that require precise clock generation and multiplication. It can be used in applications such as:

• Communication systems
• Data centers
• Industrial automation
• Test and measurement equipment
• Consumer electronics

Working Principles

The SI5338C-B05006-GMR utilizes advanced PLL (Phase-Locked Loop) technology to generate and multiply clock signals. It takes an input reference clock and generates multiple output clocks with programmable frequencies and formats. The device incorporates high-speed digital logic and analog circuitry to achieve accurate timing and low jitter performance.

Detailed Application Field Plans

1. Communication Systems: The SI5338C-B05006-GMR can be used in communication systems to provide precise clock signals for data transmission, synchronization, and network timing.

2. Data Centers: In data centers, the SI5338C-B05006-GMR can be employed to generate clock signals for servers, switches, and storage systems, ensuring reliable data processing and communication.

3. Industrial Automation: This clock generator is suitable for industrial automation applications where precise timing is crucial for synchronized operation of various control systems and sensors.

4. Test and Measurement Equipment: The SI5338C-B05006-GMR can be utilized in test and measurement equipment to generate accurate clock signals for signal analysis, waveform generation, and time-domain measurements.

5. Consumer Electronics: In consumer electronics, this clock generator can be used in devices such as TVs, set-top boxes, and gaming consoles to ensure proper synchronization of audio and video signals.

Detailed Alternative Models

• SI5338A-B05006-GMR
• SI5338B-B05006-GMR
• SI5338D-B05006-GMR
• SI5338E-B05006-GMR
• SI5338F-B05006-GMR

5 Common Technical Questions and Answers

1. Q: What is the maximum output frequency of the SI5338C-B05006-GMR? A: The SI5338C-B05006-GMR can generate output frequencies up to 808MHz.

2. Q: Can I program the output format of the clock signals? A: Yes, the SI5338C-B05006-GMR supports multiple output formats such as LVCMOS, LVDS, HCSL, and LVPECL, which can be programmed according to your requirements.

3. Q: Does the SI5338C-B05006-GMR support spread spectrum modulation? A: Yes, this clock generator has built-in support for spread spectrum modulation, allowing you to reduce electromagnetic interference (EMI) in your system.

4. Q