Content
@
https://warpcast.com/~/channel/scratchpad
0 reply
0 recast
0 reaction
Monday Blessing
@mondayblessing
Scratch Pad Testing in Hardware: A Quick and Effective Debugging Method Introduction In the fast-paced world of hardware development, engineers need efficient ways to test and debug circuits before committing to full-scale validation. Scratch pad testing is a quick, hands-on approach that allows engineers to identify issues early, saving time and resources. But what exactly is scratch pad testing, and why is it so valuable? What is Scratch Pad Testing? Scratch pad testing is an informal, ad-hoc method of checking a circuit’s basic functionality before conducting formal verification. This process involves:
1 reply
0 recast
0 reaction
Monday Blessing
@mondayblessing
✔️ Quick signal probing with an oscilloscope or multimeter ✔️ Power integrity checks to ensure stable voltage and current flow ✔️ Component testing to confirm proper connections ✔️ Firmware interactions to verify microcontroller or FPGA behavior This technique is especially useful for early-stage prototyping and debugging. Why is Scratch Pad Testing Important? Many hardware failures stem from simple issues like loose connections, incorrect voltages, or faulty components. Instead of diving into complex debugging tools, scratch pad testing allows engineers to quickly isolate problems and take corrective action.
1 reply
0 recast
0 reaction
Monday Blessing
@mondayblessing
Key Benefits: ✅ Saves Time – Identifies obvious issues before deep debugging ✅ Reduces Costs – Prevents unnecessary component replacements ✅ Enhances Prototyping – Speeds up development cycles ✅ Improves Efficiency – Helps engineers focus on real design flaws How to Perform Scratch Pad Testing 1️⃣ Check Power & Ground First – Verify that all power lines provide the correct voltage and ground connections are intact. 2️⃣ Inspect for Shorts & Opens – Use a multimeter to check for short circuits or disconnected traces. 3️⃣ Probe Key Signals – Use an oscilloscope or logic analyzer to monitor important signals. 4️⃣ Test Components Individually – Remove and test suspect components separately. 5️⃣ Run Basic Firmware Checks – If applicable, load minimal firmware to verify microcontroller or FPGA behavior.
1 reply
0 recast
0 reaction
