P4SMA10C
Product Overview
Category
P4SMA10C belongs to the category of TVS (Transient Voltage Suppressor) diodes.
Use
It is primarily used for surge protection in electronic circuits, providing a low clamping voltage during transient events.
Characteristics
- Low clamping voltage
- Fast response time
- High surge current capability
Package
P4SMA10C is available in a SMA package, which is a surface mount device (SMD).
Essence
The essence of P4SMA10C lies in its ability to protect sensitive electronic components from voltage transients and surges.
Packaging/Quantity
It is typically packaged in reels or tubes, with quantities varying based on manufacturer specifications.
Specifications
- Standoff Voltage: 8.55V to 9.45V
- Breakdown Voltage: 9.50V to 10.5V
- Peak Pulse Power: 400W
- Operating Temperature: -55°C to 150°C
- Reverse Standoff Voltage: 10V
- Maximum Clamping Voltage: 17.0V
- Peak Pulse Current: 19.2A
Detailed Pin Configuration
P4SMA10C has two pins, with the anode and cathode connections clearly marked on the device.
Functional Features
- Provides protection against voltage transients and surges
- Fast response time ensures minimal impact on the protected circuit
- Low clamping voltage prevents damage to sensitive components
Advantages
- High surge current capability
- Fast response time
- Compact surface mount package
Disadvantages
- Limited power dissipation capability compared to larger devices
- Higher cost compared to standard diodes
Working Principles
P4SMA10C operates by diverting excess current away from the protected circuit when a transient event occurs. It achieves this by rapidly switching into a low impedance state, effectively clamping the voltage to a safe level.
Detailed Application Field Plans
P4SMA10C is commonly used in various electronic systems, including: - Telecommunication equipment - Industrial control systems - Automotive electronics - Consumer electronics
Detailed and Complete Alternative Models
Some alternative models to P4SMA10C include: - P6SMB10A - 1.5SMC10CA - SMBJ10A
In conclusion, P4SMA10C is a crucial component in safeguarding electronic circuits from voltage transients and surges, finding widespread use across diverse industries due to its reliable performance and compact form factor.
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기술 솔루션에 P4SMA10C 적용과 관련된 10가지 일반적인 질문과 답변을 나열하세요.
What is P4SMA10C?
- P4SMA10C is a type of TVS (transient voltage suppressor) diode that is designed to protect sensitive electronic components from voltage spikes and transients.
What is the maximum working voltage of P4SMA10C?
- The maximum working voltage of P4SMA10C is 10V.
What is the peak pulse power of P4SMA10C?
- The peak pulse power of P4SMA10C is typically 400W.
What are the typical applications of P4SMA10C?
- P4SMA10C is commonly used in various technical solutions such as power supplies, communication systems, automotive electronics, and industrial equipment to protect against transient overvoltage events.
What is the response time of P4SMA10C?
- The response time of P4SMA10C is very fast, typically in the nanosecond range, which allows it to quickly clamp transient voltages to safe levels.
How does P4SMA10C provide protection?
- P4SMA10C provides protection by diverting excessive current away from sensitive components when a voltage spike or transient occurs, thus preventing damage to the circuit.
Is P4SMA10C suitable for high-speed data lines?
- Yes, P4SMA10C is suitable for protecting high-speed data lines such as USB, Ethernet, and HDMI interfaces from voltage surges.
What is the operating temperature range of P4SMA10C?
- The operating temperature range of P4SMA10C is typically -55°C to 150°C, making it suitable for a wide range of environments.
Can P4SMA10C be used in conjunction with other protective components?
- Yes, P4SMA10C can be used in combination with other protective components such as varistors and fuses to provide comprehensive overvoltage protection.
Are there any specific layout considerations when using P4SMA10C?
- It is important to minimize the length and impedance of the traces connecting P4SMA10C to the protected circuit to ensure optimal performance. Additionally, proper grounding and placement near the protected components are essential for effective protection.