Examines grain structures, phases, and inclusions in metals and alloys.
Identifies material defects, segregations, and failure points.
Measures grain size to evaluate the material’s mechanical properties.
Ensures compliance with industry standards for specific applications.
Detects cracks, porosity, or surface irregularities in components.
Verifies the quality of surface treatments like coatings or heat treatments.
Analyzes the composition and distribution of different elements in materials
Supports research and development (R&D) for new materials or product designs.
Critical for studying metals, alloys, and their behaviors under different conditions.
Supports innovations in advanced materials for industrial use.
Analyzes components like engine parts, gears, and chassis materials.
Ensures durability and quality in vehicle manufacturing.
Evaluates the structural integrity of high-performance materials like titanium alloys.
Essential for maintaining safety and performance in aerospace applications.
Performs quality assurance on industrial machinery components.
Verifies the effectiveness of welding, forging, and machining processes.
Examines materials used in power plants, such as turbines and boiler tubes.
Ensures the reliability of components under high-pressure environments.
Drives innovation in materials engineering and nanotechnology.
Offers insights into material improvements for various industrial applications.
Analyzes microstructures of conductive materials and semiconductor wafers.
Ensures the precision required for high-tech components
Studies the microstructure of structural materials like steel and concrete.
Helps in evaluating material properties for durability and safety.