1N5989B_T50A
Product Overview
Category
The 1N5989B_T50A belongs to the category of Zener diodes.
Use
It is commonly used for voltage regulation and protection in electronic circuits.
Characteristics
- Zener voltage: 5.6V
- Power dissipation: 1.5W
- Package type: T-50A
- Operating temperature range: -65°C to +200°C
- Forward voltage: 1.2V
- Reverse current: 5µA
Package
The 1N5989B_T50A is typically available in a DO-41 package.
Essence
This Zener diode provides stable and precise voltage regulation in various electronic applications.
Packaging/Quantity
It is usually packaged in reels or tubes, with quantities varying based on manufacturer specifications.
Specifications
- Zener voltage: 5.6V
- Power dissipation: 1.5W
- Maximum forward voltage: 1.2V
- Maximum reverse current: 5µA
- Package type: T-50A
- Operating temperature range: -65°C to +200°C
Detailed Pin Configuration
The 1N5989B_T50A Zener diode typically has two pins, with the anode connected to the positive side and the cathode connected to the negative side of the circuit.
Functional Features
- Precise voltage regulation
- Protection against voltage spikes
- Low reverse current
- High power dissipation capability
Advantages
- Stable and accurate voltage regulation
- Robust construction for reliability
- Wide operating temperature range
Disadvantages
- Limited power dissipation compared to higher wattage diodes
- Sensitive to temperature variations
Working Principles
The 1N5989B_T50A Zener diode operates by allowing current to flow in the forward direction like a regular diode, but it also permits current to flow in the reverse direction when the voltage reaches its specified Zener voltage, providing stable voltage regulation.
Detailed Application Field Plans
- Voltage regulation in power supplies
- Overvoltage protection in electronic circuits
- Voltage reference in precision measurement equipment
Detailed and Complete Alternative Models
- 1N4734A: Zener voltage 5.6V, power dissipation 1.3W, package DO-41
- BZX55C5V6: Zener voltage 5.6V, power dissipation 0.5W, package DO-35
- 1N5338B: Zener voltage 5.6V, power dissipation 5W, package T-18
In conclusion, the 1N5989B_T50A Zener diode offers precise voltage regulation and protection in a compact package, making it suitable for a wide range of electronic applications.
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Lista 10 Vanliga frågor och svar relaterade till tillämpningen av 1N5989B_T50A i tekniska lösningar
What is the 1N5989B_T50A diode used for?
- The 1N5989B_T50A diode is commonly used as a voltage regulator in various technical solutions.
What is the maximum forward voltage of the 1N5989B_T50A diode?
- The maximum forward voltage of the 1N5989B_T50A diode is typically around 1.5V.
What is the maximum reverse voltage of the 1N5989B_T50A diode?
- The maximum reverse voltage of the 1N5989B_T50A diode is usually around 40V.
What are the typical applications of the 1N5989B_T50A diode?
- The 1N5989B_T50A diode is commonly used in power supply circuits, voltage regulation, and overvoltage protection.
What is the current rating of the 1N5989B_T50A diode?
- The 1N5989B_T50A diode typically has a current rating of 3A.
Can the 1N5989B_T50A diode be used in automotive applications?
- Yes, the 1N5989B_T50A diode can be used in automotive applications due to its robust construction and voltage regulation capabilities.
Is the 1N5989B_T50A diode suitable for high-temperature environments?
- Yes, the 1N5989B_T50A diode is designed to operate effectively in high-temperature environments, making it suitable for a wide range of applications.
What is the thermal resistance of the 1N5989B_T50A diode?
- The thermal resistance of the 1N5989B_T50A diode is typically around 25°C/W.
Can the 1N5989B_T50A diode be used in voltage clamping applications?
- Yes, the 1N5989B_T50A diode is often used for voltage clamping to protect sensitive components from overvoltage conditions.
Are there any specific considerations for using the 1N5989B_T50A diode in parallel configurations?
- When using the 1N5989B_T50A diode in parallel configurations, it's important to ensure proper current sharing and heat dissipation to avoid uneven stress on individual diodes.