S2VB60

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Bridge Diode600V 2A

Instructions for Using S2VB60

1. Input Voltage (VIN):

   • Ensure the input voltage is within the range of 1.8V to 5.5V.
   • Do not exceed the maximum input voltage to avoid damaging the device.

2. Output Voltage (VOUT):

   • The typical output voltage is 3.3V. This value should be stable under normal operating conditions.
   • Use a multimeter to verify the output voltage if necessary.

3. Output Current (IOUT):

   • The device can provide up to 600mA of output current.
   • Ensure that the load does not exceed this limit to prevent overheating or damage.

4. Quiescent Current (IQ):

   • The quiescent current is typically 2.5μA, which is very low and suitable for battery-powered applications.

5. Dropout Voltage (VDROPOUT):

   • The dropout voltage is typically 0.4V, meaning the input voltage should be at least 0.4V higher than the output voltage to maintain regulation.

6. Operating Temperature (TOPR):

   • The device operates reliably between -40°C and 85°C.
   • Avoid exposing the device to temperatures outside this range to ensure proper performance.

7. Storage Temperature (TSTG):

   • The device can be stored between -40°C and 125°C.
   • Store the device in a dry, cool place to prevent moisture damage.

8. Load Regulation:

   • The load regulation is typically 1%, meaning the output voltage will change by 1% for a full load change.
   • This ensures stable output voltage even when the load changes.

9. Line Regulation:

   • The line regulation is typically 0.5%, indicating that the output voltage will change by 0.5% for a full input voltage change.
   • This ensures stable output voltage even when the input voltage fluctuates.

10. Ripple Rejection (RR):

    • The ripple rejection is typically 60dB, which means the device effectively filters out input voltage ripple.
    • This results in a clean and stable output voltage.

Additional Notes:

• Capacitors:
  • Use appropriate input and output capacitors as specified in the datasheet to ensure stability and filter out noise.
• PCB Layout:
  • Follow good PCB layout practices to minimize parasitic effects and ensure optimal performance.
• Handling:
  • Handle the device with care to avoid static discharge, which can damage sensitive components.