Tell us about the material, application, environment, and any method, standard, specimen, or conditioning constraints.
We’ll align the appropriate method, specimen requirements, and deliverables to your objectives, then provide a quote and test plan.
Send the purchase order and arrange delivery of materials or specimens so the program can move into scheduling and execution.
You’ll receive an engineering test report with digital data delivery, along with any agreed raw data or method-appropriate outputs.
Describe the material, application, processing context, service conditions, and outputs you need back. We’ll recommend the most appropriate testing category and method path.
This page functions as a top-level commercial entry point for materials testing. It helps visitors start the discussion, while the Testing Categories section below routes to the four main testing families.
Materials testing spans polymers, composites, elastomers, foams, metals, ceramics, glass, films, powders, pellets, moisture-sensitive materials, and other application-specific materials. Suitability depends on the category, method, specimen form, and objective.
Yes—many programs combine mechanical, thermal, rheological, and density-related testing to support material selection, processing, CAE inputs, qualification, failure analysis, or product development.
They are presented in the Testing Categories section of this page. Click through on the testing category of interest for the relevant category overview and linked method pages.
You receive an engineering test report (PDF) and digital data deliverables. Exact outputs vary by the selected tests and may include mechanical property curves/values, thermal transitions or stability data, rheology flow or viscoelastic results, and density/moisture/PVT outputs.
Typical turnaround is five business days for standard testing. Turnaround can vary based on the selected methods, conditioning requirements, temperature/pressure programs, run length, and test volume.
In the development and application of advanced materials, understanding how materials respond to mechanical, rheological, thermal, and other influences is essential for ensuring performance, reliability, and manufacturability. A comprehensive suite of testing techniques—categorized into mechanical, rheological, thermal, and density-related testing—provides the foundational data required for selecting materials, optimizing processing conditions, validating product designs, and ensuring compliance with industry standards. These testing methods are not only critical in isolating material behaviors under specific conditions but also work in concert to provide a holistic view of how materials will perform in real-world environments.
The sections below group materials testing into major categories, with links to related testing services, key applications, standards context, specimen considerations, and test methods.
Mechanical Testing assesses how materials respond to applied forces, providing critical data for evaluating structural integrity, durability, and overall mechanical performance. By simulating real-world conditions—such as tension, compression, bending, impact, fatigue, and high-speed loading—mechanical tests enable engineers to validate designs, predict failure modes, and refine materials for demanding applications. These tests are indispensable in sectors such as aerospace, automotive, construction, biomedical engineering, and consumer product development.
Learn more about Mechanical Testing.
Thermal Analysis evaluates how materials behave when exposed to changes in temperature, providing essential information on their heat resistance, thermal stability, conductivity, and expansion. These tests are crucial for applications where materials must maintain performance under thermal stress or in varying environmental conditions. By employing methods like heat deflection temperature, softening point, thermal diffusivity, and thermogravimetric analysis, engineers can ensure that materials meet the thermal demands of their intended applications. Thermal testing is widely applied in automotive, aerospace, electronics, energy, and construction industries to support material selection and product development.
Learn more about Thermal Analysis.
Rheology Testing focuses on the flow and deformation behavior of materials under applied stresses, especially in melt or semi-solid states. These tests reveal how materials process during manufacturing—characterizing properties such as viscosity, viscoelasticity, and flow stability under various shear or temperature conditions. Rheological methods are particularly vital for polymer development, helping engineers fine-tune materials for molding, extrusion, and curing processes. They play a crucial role in product consistency and performance in industries ranging from plastics and coatings to food, pharmaceuticals, and adhesives.
Learn more about Rheology Testing.
Density-Related Testing provides key insights into material structure and behavior by evaluating mass-to-volume relationships and responses to temperature, pressure, and moisture. These tests help ensure consistency in processing and performance by characterizing basic properties like solid, melt, and bulk density, as well as more complex behaviors such as thermal expansion and compressibility. Used extensively in plastics, composites, elastomers, and other engineered materials, density-related testing supports quality control, predictive modeling, and design optimization across a range of industries.
Learn more about Density-Related Testing.