As components shrink (Moore’s Law), power density increases, leading to "sizzling" temperatures.
Summarize your findings. State whether the design successfully handled the thermal constraints and suggest future improvements (e.g., using liquid cooling or advanced materials like Gallium Nitride (GaN)).
When these three align, your circuit doesn't just work; it sizzles . Think of a 5kW electric vehicle onboard charger the size of a smartphone, or a 100W USB-C adapter smaller than a sugar cube. That is sizzling circuit design.
As components shrink (Moore’s Law), power density increases, leading to "sizzling" temperatures.
Summarize your findings. State whether the design successfully handled the thermal constraints and suggest future improvements (e.g., using liquid cooling or advanced materials like Gallium Nitride (GaN)).
When these three align, your circuit doesn't just work; it sizzles . Think of a 5kW electric vehicle onboard charger the size of a smartphone, or a 100W USB-C adapter smaller than a sugar cube. That is sizzling circuit design.
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