Heatsink Design Academy
13 Modules
Interactive
Master Heat Sink Design
from Thermal Fundamentals to FPGA & Power Supply Projects
A complete thermal engineering curriculum covering conduction, convection, and radiation, thermal resistance networks, heatsink geometry, materials, and TIM selection — with a guided design wizard and two real capstone projects: a 25 W FPGA and a 500 W DC-DC power supply.
13
Core Modules
8h+
Learning Time
1
Design Wizard
2
Capstone Projects
Core Modules
Complete these 13 modules in order. Each builds on the previous.
01
Introduction to Thermal Engineering
Why electronics generate heat, junction temperature limits, and the real cost
of overheating — from a 10 W regulator to a 350 W power module.
02
Heat Transfer Fundamentals
Conduction, convection, and radiation with interactive simulations and
engineering plots.
03
Thermal Resistance Networks
The junction-to-air resistance chain (RJC, RCS,
RSA) with interactive calculators and step-by-step analysis.
04
Heatsink Fundamentals
Fin efficiency, fin density, base thickness, aspect ratio, and manufacturing
methods (extrusion, skiving, bonded fin, die casting).
05
Heatsink Geometry Selection
Interactive decision tree for choosing the right heatsink type — pin-fin,
straight-fin, or folded-fin — based on your airflow and space constraints.
06
Natural Convection Cooling
Fin spacing optimization, the chimney effect, and orientation effects, with
design calculators for buoyancy-driven airflow.
07
Forced Convection Cooling
Fan curves, system pressure drop, and air velocity analysis with an
interactive airflow calculator.
08
Heatsink Material Selection
Aluminum vs. copper vs. graphite vs. vapor chambers — weight, conductivity,
and cost-performance trade-offs.
09
Thermal Interface Materials (TIM)
TIM selection (pads, greases, phase-change, epoxies), gap-filling mechanics,
and how much junction temperature a bad bond line costs you.
DW
Heatsink Design Wizard
Guided engineering workflow — from power dissipation and ambient requirements
to a complete heatsink recommendation.
C1
Project: FPGA Thermal Design
Design a heatsink for a Xilinx Kintex UltraScale FPGA dissipating 25 W — full
datasheet extraction through thermal validation.
C2
Project: Power Supply Thermal Design
Design cooling for a 500 W DC-DC converter with 18 W of MOSFET losses —
natural and forced convection analysis compared.
13
Final Review & Knowledge Check
Automated design review checklist covering thermal, reliability,
manufacturability, cost, and mechanical constraints.
Extras
A quick-start demo and your course certificate.
D
Heatsink Design in 5 Minutes — Interactive Demo
A quick tour of the core heat sink design concepts and thermal trade-offs.
CF
Course Certificate
Download your Rising Edge Heatsink Design Academy certificate after completing
all modules and both capstone projects.
Prerequisites
This course assumes foundational electronics knowledge. You should be comfortable with:
Ohm's Law and the thermal-electrical resistance analogy
Basic power dissipation (P = I²R, P = IV)
Familiarity with component packaging and PCB layout
Reading component datasheets