SIH26029 · Ministry of Consumer Affairs, Food & Public Distribution
Automated High-Current Short-Circuit Test System for IEC 60898-1:2015 MCB Compliance.
💡 Before you commit — think it through
GuidedList the current tools/products/manual methods people use for this. Judges want to see you know the landscape.
What do today's solutions get wrong or miss? That gap is your opening.
Name a real person or place near you affected by this. Plan to talk to them.
One angle no other team would take. This is what wins the pitch.
- Hardware edition — plan for a physical prototype, not just slides.
The problem
Background: The safety of electrical installations hinges on reliable Miniature Circuit Breakers (MCBs). IEC 60898-1:2015 mandates rigorous short-circuit breaking capacity tests, crucial for ensuring MCBs perform correctly under severe fault conditions. Existing Problem: Current manual or semi-automated testing methods for MCBs introduce significant challenges. These include imprecise R (resistive) and XL (inductive) circuit configurations, increased test times, and elevated safety risks for personnel during high-energy fault current generation (up to 10,000A). This impacts test accuracy, repeatability, and overall safety in the MCB certification process. Detailed Description: This proposal outlines an automated machine to precisely control test currents, voltages, and circuit impedance, executing high-current short-circuit tests on single pole, SPN, DP, TP, and FP MCBs (0.5A-63A) per IEC 60898-1:2015. It features an Automated R and XL Circuit Combination Module with high-power, automatically switched banks for precise power factor control. A High-Current Power Source (transformer-based) delivers up to 10,000A. The Test Station includes universal MCB mounting and a critical arc chute for safety A sophisticated Control and Data Acquisition System (PLC/Industrial PC) manages tests captures high-speed waveforms, and analyzes data (Ip, I2t). A user-friendly HMI allows parameter input and automatic report generation. Comprehensive safety systems are integrated. Expected Solution: The automated machine will perform MCB breaking capacity tests with unprecedented accuracy and repeatability, fully adhering to IEC 60898-1:2015. This automation will ensure precise parameter control, significantly reduce test times, and enhance safety by minimizing human intervention during high-energy fault conditions. This state-of- he-art facility will provide a reliable platform for MCB certification, contributing directly to electrical safety and quality assurance.