At SEAM Waterford, we specialize in advanced Materials Failure Analysis to uncover the root causes behind material, component, or system failures. From cracking and delamination to electronic device malfunctions, our cutting-edge techniques, including non-destructive 3D analysis, deliver precise insights. Serving industries like aerospace, automotive, and manufacturing, we help businesses prevent failures, improve performance, and ensure long-term reliability.
This blog aims to give a brief overview of the solutions that we can offer here at SEAM . We have a proven track record allied to highly skilled staff utilising cutting edge technology . We can support the following :
Material Cracking
Cracking refers to the development of fractures or splits within a material caused by stress, fatigue, environmental exposure, or defects.
Example: Analyzing cracks in welded joints of a pipeline.
Industries: Oil and gas, construction, transportation, and marine engineering.
Material Discoloration
Discoloration involves unexpected changes in a material’s color, often indicating chemical reactions, contamination, or degradation due to environmental factors like heat, UV exposure, or corrosion.
Example: Examining discoloration in plastic packaging exposed to extreme sunlight.
Industries: Food packaging, medical devices, and consumer goods.
Material Fracture
A fracture is the complete or partial breaking of a material due to excessive force, fatigue, or a flaw. Fracture analysis investigates the mechanism and conditions leading to the break.
Example: Determining the cause of a fractured drive shaft in an automotive engine.
Industries: Automotive, aerospace, defense, and heavy machinery.
Materials Fragmentation Pattern
This refers to the way materials break into pieces during failure. Analyzing fragmentation patterns helps determine the forces and conditions that caused the failure.
Example: Studying the breakage pattern of tempered glass in a vehicle window after an accident.
Industries: Automotive, construction, forensic analysis, and consumer electronics.
Material Inclusions and Voids
Inclusions are impurities or foreign materials embedded within a material, while voids are empty spaces or bubbles. Both can weaken materials and are often studied to identify manufacturing or material defects.
Example: Investigating voids in solder joints of a circuit board affecting electrical performance.
Industries: Electronics, semiconductor manufacturing, and additive manufacturing.
Non-Destructive 3D Visual Analysis
This technique uses advanced imaging tools, such as CT scans, to visualize the internal structure of components without damaging them, enabling detailed failure analysis while preserving the sample.
Example: Visualizing internal defects in an aerospace composite panel.
Industries: Aerospace, medical devices, automotive, and additive manufacturing.
Delamination
Delamination is the separation of layers in composite materials, often caused by weak bonding, fatigue, or environmental stress. It can compromise material integrity.
Example: Analyzing delamination in wind turbine blades exposed to extreme weather.
Industries: Renewable energy, aerospace, construction, and sporting goods.
Poor Fit of Assembly Components
This occurs when components do not fit or align as intended during assembly, leading to mechanical stresses or functional failures.
Example: Evaluating misaligned parts in medical devices causing performance issues.
Industries: Medical devices, precision engineering, automotive, and industrial equipment.
Catastrophic Component Failure
A sudden and complete failure of a component that leads to system shutdown or major damage. Analysis identifies the chain of events or factors causing the failure.
Example: Investigating a catastrophic gearbox failure in a mining truck.
Industries: Heavy machinery, mining, power generation, and oil and gas.
Voiding
Voiding refers to the presence of empty spaces within materials or solder joints, leading to reduced mechanical strength or electrical conductivity.
Example: Identifying voiding in soldered connections causing overheating in power electronics.
Industries: Electronics, automotive, and telecommunications.
Electronic Device Failure
Failure in electronic devices can result from overheating, electrical overstress, or material degradation. Analysis evaluates circuit components, solder joints, and materials.
Example: Analyzing the failure of a power supply unit in a telecom base station.
Industries: Telecommunications, IT hardware, automotive, and consumer electronics.
Unexplained Change in Device Behaviour
Unexpected changes in performance, such as speed, response, or output, are investigated to identify potential material or component failures, software issues, or environmental impacts.
Example: Diagnosing inconsistent performance in industrial sensors used in manufacturing lines.
Industries: Industrial automation, robotics, medical devices, and manufacturing.
Sample Preparation for Failure Analysis
This involves carefully preparing materials or components (e.g., sectioning, polishing, or mounting) to ensure accurate analysis while preserving key features of the sample.
Example: Preparing a cross-section of a failed composite material for microscopic examination.
Industries: Aerospace, automotive, materials research, and education.
SEAM Waterford offers expert Materials Failure Analysis services to help identify and resolve issues such as cracking, voids, delamination, and electronic device malfunctions. Using advanced techniques like non-destructive 3D analysis, we provide actionable insights to enhance reliability and prevent costly failures across industries.
Ready to strengthen your materials and components? Contact SEAM Waterford today for tailored solutions