画像はイメージの場合もございます。
商品詳細は仕様をご覧ください。
MXSMBJ7.0A

MXSMBJ7.0A

Product Overview

Category

MXSMBJ7.0A belongs to the category of transient voltage suppressor (TVS) diodes.

Use

It is used to protect sensitive electronic components from voltage transients induced by lightning, electrostatic discharge (ESD), and other transient voltage events.

Characteristics

  • Fast response time
  • Low clamping voltage
  • High surge current capability

Package

The MXSMBJ7.0A is typically available in a surface mount package.

Essence

The essence of MXSMBJ7.0A lies in its ability to provide robust protection for electronic circuits against transient voltage events.

Packaging/Quantity

It is commonly packaged in reels or tubes, with quantities varying based on manufacturer specifications.

Specifications

  • Standoff Voltage: 7.0V
  • Breakdown Voltage: 8.55V
  • Maximum Clamping Voltage: 11.2V
  • Peak Pulse Current: 36.1A
  • Operating Temperature Range: -55°C to 150°C

Detailed Pin Configuration

The MXSMBJ7.0A typically has two pins, with the specific pin configuration being dependent on the manufacturer's design.

Functional Features

  • Provides transient voltage suppression
  • Fast response to transient events
  • Low leakage current

Advantages and Disadvantages

Advantages

  • Effective protection against transient voltage events
  • Fast response time
  • Low clamping voltage

Disadvantages

  • Limited surge current handling capability compared to higher-rated TVS diodes
  • May require additional circuitry for comprehensive overvoltage protection

Working Principles

When a transient voltage event occurs, the MXSMBJ7.0A conducts current to divert the excess energy away from the protected circuit, thereby limiting the voltage across it.

Detailed Application Field Plans

MXSMBJ7.0A is commonly used in various electronic systems including: - Telecommunication equipment - Industrial control systems - Automotive electronics - Consumer electronics

Detailed and Complete Alternative Models

  • MXSMBJ5.0A: Similar characteristics with a lower standoff voltage of 5.0V
  • MXSMBJ10A: Higher standoff voltage of 10V for increased protection

In conclusion, MXSMBJ7.0A is a crucial component in safeguarding electronic circuits from transient voltage events, offering fast response and low clamping voltage. Its application spans across diverse industries, providing essential protection for sensitive electronic components.

[Word Count: 330]

技術ソリューションにおける MXSMBJ7.0A の適用に関連する 10 件の一般的な質問と回答をリストします。

  1. What is the maximum working voltage of MXSMBJ7.0A?

    • The maximum working voltage of MXSMBJ7.0A is 7.0V.
  2. What is the peak pulse power of MXSMBJ7.0A?

    • The peak pulse power of MXSMBJ7.0A is 600W.
  3. What is the typical clamping voltage of MXSMBJ7.0A?

    • The typical clamping voltage of MXSMBJ7.0A is 11.4V at 10A.
  4. What is the breakdown voltage of MXSMBJ7.0A?

    • The breakdown voltage of MXSMBJ7.0A is 7.78V to 8.65V.
  5. What are the applications of MXSMBJ7.0A in technical solutions?

    • MXSMBJ7.0A is commonly used for transient voltage suppression in various electronic systems, including telecommunications equipment, industrial control systems, and automotive electronics.
  6. What is the operating temperature range of MXSMBJ7.0A?

    • The operating temperature range of MXSMBJ7.0A is -55°C to 150°C.
  7. Does MXSMBJ7.0A comply with RoHS requirements?

    • Yes, MXSMBJ7.0A is compliant with RoHS (Restriction of Hazardous Substances) requirements.
  8. What is the package type of MXSMBJ7.0A?

    • MXSMBJ7.0A is available in a DO-214AA (SMB) package.
  9. Is MXSMBJ7.0A suitable for overvoltage protection in power supply circuits?

    • Yes, MXSMBJ7.0A is suitable for providing overvoltage protection in power supply circuits.
  10. Are there any recommended layout considerations for using MXSMBJ7.0A in a PCB design?

    • It is recommended to minimize the length and impedance of the traces connecting MXSMBJ7.0A to the circuit to ensure optimal performance. Additionally, proper thermal management should be considered due to the power dissipation during transient events.