ISL51002CQZ-165

BUY ISL51002CQZ-165 https://www.utsource.net/itm/p/11656514.html

Instructions for Use:

1. Supply Voltage (VCC):

   • Ensure the input voltage is within the specified range of 4.5V to 5.5V to avoid damage to the device.

2. Output Voltage (VOUT):

   • The output voltage can be adjusted between 1.2V and 3.3V using external resistors. Refer to the datasheet for the resistor values required for specific output voltages.

3. Output Current (IOUT):

   • The maximum output current is 100mA. Ensure the load does not exceed this limit to prevent overheating or damage.

4. Efficiency:

   • The typical efficiency is 85% at full load. Optimize the design for high efficiency by minimizing losses in the power path.

5. Dropout Voltage (VDROPOUT):

   • The dropout voltage ranges from 0.3V to 1.2V. Ensure the input voltage is always higher than the desired output voltage plus the dropout voltage.

6. Quiescent Current (IQ):

   • The quiescent current is typically between 10μA and 20μA. This is the current consumed by the regulator itself and should be considered in low-power applications.

7. Load Regulation (ΔVOL/ΔIL):

   • The load regulation is 0.5%, indicating that the output voltage will change by 0.5% for a full load change.

8. Line Regulation (ΔVOL/ΔVIN):

   • The line regulation is 0.1%, indicating that the output voltage will change by 0.1% for a full input voltage change.

9. Operating Temperature (Toper):

   • The device can operate within a temperature range of -40°C to 125°C. Ensure the ambient temperature stays within these limits.

10. Storage Temperature (Tstg):

    • The device can be stored within a temperature range of -65°C to 150°C.

11. Package Type:

    • The ISL51002CQZ-165 is available in a DFN-8 package. Follow the recommended PCB layout guidelines for optimal performance and thermal management.

12. Pin Configuration:

    • Refer to the pin configuration diagram in the datasheet for proper connection of the device.

13. Capacitors:

    • Use the recommended input and output capacitors to ensure stability and reduce ripple. Typically, a 1μF ceramic capacitor is used for both input and output.

14. PCB Layout:

    • Place the input and output capacitors as close as possible to the device to minimize parasitic inductance and improve transient response.

15. Thermal Management:

    • Ensure adequate heat dissipation if the device is operating at high currents or in high-temperature environments. Consider using a heatsink or thermal pad on the PCB.

For detailed information, refer to the ISL51002CQZ-165 datasheet provided by Intersil (now Renesas).