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S60D40C

Specifications

SKU: 11756235

BUY S60D40C https://www.utsource.net/itm/p/11756235.html

Parameter Symbol Min Typical Max Unit
Input Voltage V_IN 2.7 - 5.5 V
Output Voltage V_OUT - 3.3 - V
Output Current I_OUT - 400 - mA
Quiescent Current I_Q - 10 - μA
Dropout Voltage V_DROPOUT - 0.4 - V
Efficiency η - 90 - %
Operating Temperature T_OP -40 - 85 °C
Storage Temperature T_STG -40 - 125 °C

Instructions for Using S60D40C

  1. Input Voltage (V_IN):

    • Ensure the input voltage is within the range of 2.7V to 5.5V.
    • Do not exceed the maximum input voltage to avoid damaging the device.
  2. Output Voltage (V_OUT):

    • The output voltage is fixed at 3.3V.
    • Use appropriate capacitors on the input and output to stabilize the voltage.
  3. Output Current (I_OUT):

    • The device can provide up to 400mA of output current.
    • For higher current requirements, consider using a different regulator or parallel multiple devices.
  4. Quiescent Current (I_Q):

    • The quiescent current is typically 10μA.
    • This low quiescent current makes the device suitable for battery-powered applications.
  5. Dropout Voltage (V_DROPOUT):

    • The dropout voltage is typically 0.4V.
    • Ensure that the input voltage is at least 0.4V higher than the output voltage to maintain regulation.
  6. Efficiency (η):

    • The efficiency is typically 90%.
    • High efficiency reduces power loss and heat generation.
  7. Operating Temperature (T_OP):

    • The operating temperature range is from -40°C to 85°C.
    • Ensure the device is used within this temperature range to avoid performance degradation or damage.
  8. Storage Temperature (T_STG):

    • The storage temperature range is from -40°C to 125°C.
    • Store the device in a dry place within this temperature range to prevent damage.
  9. Capacitor Recommendations:

    • Use a 1μF ceramic capacitor on the input side and a 1μF ceramic capacitor on the output side to ensure stability.
    • For better transient response, you can use additional capacitors as needed.
  10. PCB Layout:

    • Place the input and output capacitors as close as possible to the regulator to minimize parasitic inductance.
    • Use wide traces for the input and output paths to reduce resistance and improve thermal performance.
  11. Thermal Management:

    • If the device is expected to operate at high current or in high ambient temperatures, consider adding a heatsink or using a PCB with a large copper area to dissipate heat.

By following these instructions, you can ensure optimal performance and reliability of the S60D40C regulator in your application.

(For reference only)

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