Enter the Mass Number, Atomic Number, Isotope, and Decay Type into the Nuclear Physics Calculator to get the Binding Energy, Mass Defect, Decay Products, and Half-Life data for your nuclide.
Duty Cycle
--
Inductance Required
--
Output Capacitance
--
Input Capacitance
--
Switching Period
--
Switch On-Time
--
A buck converter is a DC-to-DC switching regulator that steps down voltage while maintaining high efficiency. It uses a switching transistor, inductor, diode, and capacitors to convert higher input voltage to lower output voltage by rapidly switching the input on and off.
Higher switching frequencies allow smaller component sizes but increase switching losses. Typical frequencies range from 100kHz to 2MHz. Choose based on size constraints, efficiency requirements, and EMI considerations.
Datasheets often use different ripple current percentages or operating conditions. Our calculator uses your specific parameters. Always verify the inductor can handle the RMS and peak currents in your application.
Yes, using a larger inductor will reduce ripple current and improve efficiency, but increases size and cost. It also slows transient response. The calculated value is the minimum required for your ripple specification.
No, a buck converter can only step down voltage. The output voltage is always less than the input voltage. For step-up conversion, you need a boost converter or buck-boost converter.
CCM operation requires sufficient load current to keep the inductor current continuous. The boundary occurs when the minimum inductor current reaches zero. Light loads may cause discontinuous conduction mode (DCM).
Increase the output capacitance, use capacitors with lower ESR (like ceramic or polymer caps), increase switching frequency, or add an LC output filter. Multiple capacitors in parallel can also help.
Synchronous rectification (MOSFET instead of diode) improves efficiency, especially at high currents and low output voltages. Asynchronous (diode) rectification is simpler and cheaper but less efficient.