Destructive Testing
Repeatedly exposes components to alternating high and low temperatures to assess reliability
under thermal expansion and contraction.
Exposes die structure, verifies chip size, manufacturer logos, and part numbers.
Identifies counterfeiting signs like sand marks, texture inconsistencies, and blacktopping.
Confirms lead coating durability and assesses oxidation/corrosion levels.
Gradually removes material layers through precision grinding and polishing to expose internal structures for defect analysis.
Uses infrared imaging to detect localized overheating, identifying potential failure points in electronic components.
Measures bond strength and material integrity for compliance with reliability standards.
Examines internal component structure to identify defects that could lead to failures.
Repeatedly exposes components to alternating high and low temperatures to assess reliability under thermal expansion and contraction.
Subjects components to sudden and extreme temperature changes to evaluate resistance to rapid thermal transitions.
Operates components under elevated temperature and electrical stress for an extended period to detect early-life failures.
Simulates mechanical shock by dropping components from a specified height to assess durability and structural integrity.
Applies controlled vibrations to components to evaluate resistance to mechanical fatigue and transportation stress.
Tests component performance under extreme temperature and humidity conditions to ensure long-term reliability.
Exposes components to a salt mist environment to assess corrosion resistance, particularly for metal parts and coatings.
Applies excessive electrical stress to determine a component’s failure thresholds and safety margins.
Evaluates component resilience by applying physical forces such as bending, compression, or torsion to simulate real-world stresses.