Overview
The SM6T200CAHE3/52 is a high-reliability TVS (Transient Voltage Suppressor) diode manufactured by Vishay General Semiconductor. This component is part of the TransZorb® series, known for its robust transient voltage suppression capabilities. It is specifically designed for automotive applications and is AEC-Q101 qualified, ensuring high standards of reliability and performance in harsh environments.
This TVS diode is ideal for protecting sensitive electronics against voltage transients induced by inductive load switching and lightning. Its compact SMB (DO-214AA) package makes it suitable for automated placement in various electronic systems.
Key Specifications
| Parameter | Value | Unit |
|---|---|---|
| Manufacturer | Vishay General Semiconductor | |
| Package | DO-214AA (SMB) | |
| Voltage - Reverse Standoff (Typ) | 171V | V |
| Voltage - Breakdown (Min) | 190V | V |
| Voltage - Clamping (Max) @ Ipp | 274V | V |
| Current - Peak Pulse (10/1000µs) | 2.2A | A |
| Power - Peak Pulse | 600W | W |
| Operating Temperature | -65°C ~ 150°C (TJ) | °C |
| Grade | Automotive | |
| Qualification | AEC-Q101 | |
| Mounting Type | Surface Mount | |
| Polarity | Bidirectional | |
| Number of Channels | 1 Channel | |
| Power Dissipation | 5 W | W |
| RoHS Compliance | Yes |
Key Features
- Low Profile Package: The SM6T200CAHE3/52 comes in a compact SMB (DO-214AA) package, ideal for automated placement and space-saving designs.
- High Power Handling: Capable of handling peak pulse power of 600W and peak pulse current of 2.2A, making it suitable for high-energy transient protection.
- AEC-Q101 Qualified: Meets the stringent requirements of the automotive industry, ensuring reliability and performance in harsh environments.
- Wide Operating Temperature Range: Operates over a temperature range of -65°C to 150°C, making it versatile for various applications.
- RoHS and Halogen-Free Compliance: Compliant with RoHS and halogen-free standards, ensuring environmental sustainability.
- Low Inductance: Designed with low inductance to minimize the impact of high-frequency transients.
- Glass Passivated Chip Junction: Enhances reliability and stability by protecting the chip junction from environmental stresses.
Applications
- Automotive Systems: Ideal for protecting electronic circuits in automotive systems against voltage transients and ESD pulses.
- Industrial Electronics: Suitable for use in industrial control systems, power supplies, and other high-reliability applications.
- Telecommunication Equipment: Protects sensitive electronics in telecom equipment from transient voltages and ESD.
- Consumer Electronics: Used in consumer electronics such as audio/video devices and other sensitive electronic circuits.
- Computer Systems: Provides protection against voltage transients in computer systems, including motherboards and peripheral devices.
Q & A
- What is the primary function of the SM6T200CAHE3/52 TVS diode?
The primary function is to protect sensitive electronics against voltage transients and ESD pulses.
- What is the peak pulse power handling capability of the SM6T200CAHE3/52?
The SM6T200CAHE3/52 can handle a peak pulse power of 600W.
- What is the operating temperature range of the SM6T200CAHE3/52?
The operating temperature range is -65°C to 150°C.
- Is the SM6T200CAHE3/52 AEC-Q101 qualified?
Yes, it is AEC-Q101 qualified, making it suitable for automotive applications.
- What type of package does the SM6T200CAHE3/52 come in?
The SM6T200CAHE3/52 comes in a DO-214AA (SMB) package.
- Is the SM6T200CAHE3/52 RoHS compliant?
Yes, it is RoHS compliant and also halogen-free.
- What is the reverse standoff voltage of the SM6T200CAHE3/52?
The reverse standoff voltage is 171V.
- What is the peak pulse current of the SM6T200CAHE3/52?
The peak pulse current is 2.2A.
- What are the typical applications of the SM6T200CAHE3/52?
Typical applications include automotive systems, industrial electronics, telecommunication equipment, consumer electronics, and computer systems.
- Does the SM6T200CAHE3/52 have low inductance?
Yes, it is designed with low inductance to minimize the impact of high-frequency transients.
