Material Analysis & Testing Services

Material analysis & testing: why it matters

Modern products—from aerospace components to consumer goods—depend on carefully selected materials. Material analysis assesses a material’s composition, microstructure and performance, ensuring it meets safety and quality requirements. According to Acuren’s July 2025 industry blog, materials testing evaluates mechanical, physical and chemical properties, as well as how a material behaves under environmental conditions such as extreme temperatures or corrosive environments. Testing can be performed on raw materials, intermediate parts or finished products to confirm suitability, durability and regulatory compliance.

A material selection chart or a material life‑cycle analysis (LCA) helps engineers choose suitable materials by comparing strength, density, sustainability and cost. At the same time, material flow analysis (MFA) tracks how resources move through a system and is supported by specialized material flow analysis software. Understanding these fundamentals is essential before investing in testing.

Types of tests and analytical methods

Different applications require different tests. Common mechanical tests include tensile testing, hardness testing and fracture toughness. Tensile testing measures a material’s strength and elasticity by stretching it until it breaks. Hardness tests measure resistance to deformation under specified conditions, while corrosion tests assess performance in chemical environments. Selecting the right test is critical; a material testing report documents the methods, results and conclusions, and well‑structured material testing reports & documentation streamline quality audits and regulatory submissions.

Advanced analysis involves both microscopy and spectroscopy. Kemet International explains that microstructural analysis uses optical microscopy and scanning electron microscopy (SEM) to reveal surface morphology, while transmission electron microscopy (TEM) looks at atomic‑scale structure. For elemental composition, spectroscopic techniques like X-ray fluorescence (XRF), X-ray diffraction (XRD), Fourier‑transform infrared spectroscopy (FTIR) and energy‑dispersive X‑ray spectroscopy (EDS) are employed. Here’s how some key methods work:

• SEM & EDS/EDX material analysis: SEM images can magnify features up to 500 000× and, combined with EDS, identify elemental composition down to the micrometer scale. This combination is ideal for failure analysis and composite & polymer material analysis because it reveals both microstructure and chemical constituents.

• XRF material analysis: XRF determines elemental composition quickly and non‑destructively. Deringer‑Ney notes that XRF is widely used in geology, environmental management, polymers and metallurgy. The instrument bombards a sample with X‑rays, causing characteristic fluorescent photons; these photons are detected to identify and quantify elements. XRF can detect most elements above 1 ppm, making it useful for quality control of raw materials.

• XRD material analysis: XRD examines crystal structures by measuring how X‑rays diffract through a material. It is invaluable for identifying phases, detecting residual stress and studying composite materials.

• FTIR & TGA material analysis: Eurofins EAG explains that combining thermogravimetric analysis (TGA) with FTIR allows simultaneous measurement of mass loss and identification of gases released during heating. The TGA–FTIR system records the mass loss as a sample heats and identifies released molecules via the FTIR cell, with detection sensitivity down to 10–100 ppm. This technique is used for polymer characterization, contamination studies and cosmetic raw material analysis & quality.

• ICP & LIBS material analysis: Laser‑induced breakdown spectroscopy (LIBS) is a minimally destructive, rapid technique that focuses a high‑energy laser on a sample to create a small plasma. When the plasma cools, each element emits characteristic light which can be detected to determine composition; LIBS requires minimal sample preparation and can analyze solid, liquid or gas samples. It is portable and capable of detecting many elements—including light elements—down to parts‑per‑million levels. Inductively coupled plasma (ICP‑OES or ICP‑MS) complements LIBS and XRF by providing highly sensitive quantitative analysis.

• CT & X‑ray materials analysis: X‑ray computed tomography (CT) provides non‑destructive 3D images of internal structures. North Star Imaging notes that X‑ray CT scanning is non‑invasive and non‑destructive, allowing multiple analyses of failed parts without causing further damage. CT imaging helps engineers identify internal cracks, voids and inclusions, aiding failure analysis and quality control.

These methods form a powerful toolkit for material testing methods & types, from hyperspectral imaging material analysis to density meters for material analysis and material testing guns for portable alloy identification. Our equipment portfolio includes material testing equipment, material analysis spectrometers and specialized devices like XRF material analysis guns.

Software, automation and data management

As digitalization accelerates, material analysis software streamlines data processing and reporting. Programs such as MAUD (Material Analysis Using Diffraction) interpret XRD patterns; other packages manage material flow analysis software for supply‑chain sustainability. For corporate finance, material price analysis in SAP helps procurement teams track costs and manage material balance & variance analysis. Value analysis in material management identifies cost‑effective alternatives, while material variance analysis and material life‑cycle analysis support budgeting and ESG goals.

Certifications, documentation and quality assurance

High‑quality labs provide a material analysis certificate to verify test results. A Certificate of Analysis (COA) is a document issued by a manufacturer or laboratory that details test methods and results, confirming that a product meets specific quality standards. It typically includes product identification, test methods and results, specifications and an authorized signature. By contrast, a Certificate of Conformance (CoC) simply states that a material meets specified requirements; it is usually not signed, may not reference purchase order numbers and does not include test data. A COA, which includes actual test results and methods, is signed by the testing agency and often requires extra time and cost. BACH INDUSTRY AG operates according to ISO standards and can supply CoC or CoA documentation depending on customer requirements.

Detailed documentation is vital. Our reporting templates deliver clear material analysis report & templates and material analysis charts & diagrams, making complex data accessible. If you need to integrate test results into corporate systems, our consultants can help with SAP material price analysis and bill of material analysis.

Industries and use cases

Material testing is essential across many sectors. Acuren highlights its importance for aerospace, automotive, building and infrastructure, manufacturing, oil and gas, and pulp and paper industries. Our services extend to construction material analysis (e.g., concrete, wood and pavement testing), packaging material analysis (especially for food and pharmaceutical packaging), cosmetic raw material analysis & quality, composite & polymer material analysis, and material culture analysis for research. We also support material testing careers through training and provide access to material analysis books & courses for professional development.

For companies pursuing sustainability, a materiality assessment identifies environmental, social and governance (ESG) issues most relevant to stakeholders. In supply‑chain management, material demand/consumption/usage analysis, material risk analysis and material requirements analysis help balance inventory levels and identify vulnerabilities.

Why choose BACH INDUSTRY AG?

BACH INDUSTRY AG offers a full spectrum of material analysis services—from raw material analysis and construction material analysis to value analysis in material management. We supply material testing equipment, material analysis spectrometers, material analysis software and material analysis devices, including portable XRF guns and density meters. Our experts are fluent in SEM & EDS/EDX, XRF, XRD, FTIR & TGA, ICP & LIBS, and CT & X‑ray materials analysis, ensuring accurate results and actionable insights. We operate accredited laboratories with ISO 17025 certification and provide customizable CoA/CoC documentation.

With sales offices in Switzerland, Germany, Austria, Liechtenstein, Belgium and Africa, we combine local support with global expertise. Whether you want to order a lab analysis, buy material testing equipment or implement material analysis software, our team can help reduce costs, improve product quality and comply with regulations.

BACH INDUSTRY AG stands ready to support your material testing and analysis needs. Contact us to discuss your project, request a quote or learn more about our solutions.