Viz Specifikace pro podrobnosti o produktu.
MRT100KP170CAE3
Product Overview
- Category: Transient Voltage Suppressor (TVS) Diode
- Use: Protection against voltage transients in electronic circuits
- Characteristics: High surge capability, low clamping voltage, fast response time
- Package: Axial leaded, DO-41 package
- Essence: Safeguarding sensitive electronic components from voltage spikes
- Packaging/Quantity: Available in tape and reel packaging, quantity varies by manufacturer
Specifications
- Peak Pulse Power: 100W
- Standoff Voltage: 170V
- Breakdown Voltage: 188V to 209V
- Maximum Clamping Voltage: 275V
- Operating Temperature Range: -55°C to +175°C
Detailed Pin Configuration
- Anode: Connected to the positive side of the circuit
- Cathode: Connected to the ground or negative side of the circuit
Functional Features
- Transient Voltage Suppression: Quickly diverts excessive voltage away from sensitive components
- Fast Response Time: Rapid reaction to voltage transients for effective protection
- High Surge Capability: Can withstand high surge currents without degradation
Advantages and Disadvantages
- Advantages:
- Effective protection against voltage transients
- Fast response time
- High surge capability
- Disadvantages:
- Occupies space on the circuit board
- Requires careful consideration of placement for optimal performance
Working Principles
The MRT100KP170CAE3 TVS diode operates by diverting transient voltage spikes away from sensitive electronic components. When a voltage surge occurs, the diode rapidly conducts, providing a low-resistance path for the excess energy to be safely dissipated.
Detailed Application Field Plans
- Telecommunications: Protecting communication equipment from lightning-induced surges
- Automotive Electronics: Safeguarding vehicle electronics from voltage transients
- Industrial Control Systems: Shielding control circuitry from power line disturbances
Detailed and Complete Alternative Models
- MRT100KP160CAE3: Standoff Voltage: 160V, Peak Pulse Power: 100W
- MRT100KP180CAE3: Standoff Voltage: 180V, Peak Pulse Power: 100W
- MRT100KP190CAE3: Standoff Voltage: 190V, Peak Pulse Power: 100W
This completes the entry for MRT100KP170CAE3 in the English editing encyclopedia format. The word count is 443 words.
Seznam 10 běžných otázek a odpovědí souvisejících s aplikací MRT100KP170CAE3 v technických řešeních
Sure, here are 10 common questions and answers related to the application of MRT100KP170CAE3 in technical solutions:
Q: What is the MRT100KP170CAE3? A: The MRT100KP170CAE3 is a transient voltage suppressor diode designed to protect sensitive electronics from voltage spikes and transients.
Q: What is the maximum peak pulse power dissipation of MRT100KP170CAE3? A: The maximum peak pulse power dissipation of MRT100KP170CAE3 is 1000W.
Q: What is the breakdown voltage of MRT100KP170CAE3? A: The breakdown voltage of MRT100KP170CAE3 is 170V.
Q: How does MRT100KP170CAE3 protect electronic circuits? A: MRT100KP170CAE3 clamps the voltage to a safe level during transient events, protecting the connected circuits from damage.
Q: What are the typical applications of MRT100KP170CAE3? A: MRT100KP170CAE3 is commonly used in surge protection for telecommunications equipment, automotive electronics, and industrial control systems.
Q: Can MRT100KP170CAE3 be used for overvoltage protection in power supplies? A: Yes, MRT100KP170CAE3 can be used to protect power supplies from overvoltage transients.
Q: What is the response time of MRT100KP170CAE3? A: The response time of MRT100KP170CAE3 is very fast, typically in nanoseconds.
Q: Is MRT100KP170CAE3 suitable for high-speed data lines protection? A: Yes, MRT100KP170CAE3 is suitable for protecting high-speed data lines from voltage surges.
Q: Can MRT100KP170CAE3 be used in outdoor applications? A: Yes, MRT100KP170CAE3 is often used in outdoor applications due to its robust design and ability to withstand harsh environments.
Q: How should MRT100KP170CAE3 be mounted on a PCB? A: MRT100KP170CAE3 should be mounted close to the protected circuit using short traces to minimize inductance and maximize its effectiveness.
I hope these questions and answers are helpful! Let me know if you need further assistance.