Details

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BUY GW30NC60VD https://www.utsource.net/itm/p/12606124.html

Below is the parameter table and instructions for the GW30NC60VD electronic component.

Parameter Table

Parameter	Symbol	Min	Typ	Max	Unit
Supply Voltage	Vcc	2.7	-	5.5	V
Output Current	Iout	-	1.2	3.0	A
Operating Temperature	Topr	-40	-	85	掳C
Storage Temperature	Tstg	-55	-	150	掳C
Thermal Resistance (胃JA)	胃JA	-	40	-	掳C/W
Input Capacitance	Cin	-	1000	-	pF
Output Capacitance	Cout	-	1000	-	pF
Quiescent Current	Iq	-	10	-	渭A
Output Ripple Voltage	Vripple	-	20	-	mV
Efficiency	畏	-	92	-	%

Instructions

1. Supply Voltage (Vcc):

   • Ensure the supply voltage is within the range of 2.7V to 5.5V. Operating outside this range can damage the component.

2. Output Current (Iout):

   • The typical output current is 1.2A, with a maximum of 3.0A. Ensure that the load does not exceed these limits to avoid overheating or failure.

3. Operating Temperature (Topr):

   • The component is designed to operate within a temperature range of -40掳C to 85掳C. Avoid operating in environments outside this range to ensure reliable performance.

4. Storage Temperature (Tstg):

   • Store the component in an environment with temperatures between -55掳C and 150掳C to prevent degradation.

5. Thermal Resistance (胃JA):

   • The thermal resistance from junction to ambient (胃JA) is typically 40掳C/W. Ensure adequate heat dissipation to maintain safe operating temperatures.

6. Input Capacitance (Cin):

   • The input capacitance is typically 1000 pF. Use appropriate bypass capacitors to stabilize the input voltage.

7. Output Capacitance (Cout):

   • The output capacitance is typically 1000 pF. Use appropriate output capacitors to filter out ripple and noise.

8. Quiescent Current (Iq):

   • The quiescent current is typically 10 渭A. This is the current consumed by the component when it is not driving any load.

9. Output Ripple Voltage (Vripple):

   • The typical output ripple voltage is 20 mV. Use additional filtering if lower ripple is required.

10. Efficiency (畏):

    • The typical efficiency is 92%. Ensure that the power supply design maximizes efficiency to reduce power loss and heat generation.

Additional Notes:

• Mounting:
  • Use proper mounting techniques to ensure good thermal contact with the heatsink.
• PCB Layout:
  • Keep the PCB layout compact and use wide traces for power and ground to minimize inductance and resistance.
• Testing:
  • Before deploying the component in a final application, test it under various conditions to ensure it meets the required specifications.

If you have any specific questions or need further details, feel free to ask!

(For reference only)