Reliable data is the starting point of every successful R&D project. Before publishing research, filing a patent, applying for funding, or validating a new material, you need results you can rely on. Those results must be accurate, consistent, and fully documented.
R&D projects focus on understanding new materials, comparing different formulations, and confirming research findings. The main questions remain the same throughout the process. Is the material exactly as designed? How does it perform compared with other formulations or processing conditions? And most importantly, will the results stand up to peer review, support a patent application, or provide the evidence needed to secure research funding?
R&D work usually needs several techniques together, because a new material is rarely understood through one measurement. We scope the combination that answers your question and report it as one program.
| Method | What It Answers | Typical Samples |
|---|---|---|
| Imaging & Microscopy | Structure, morphology, defects at every scale | Novel materials, cross-sections |
| Structural Characterization | Phase, crystallinity, orientation | Powders, films, crystals |
| Elemental Analysis | Composition, purity, trace elements | Synthesized materials, feedstock |
| Surface Analysis | Surface chemistry, functionalization | Films, particles, coatings |
| Thermal Analysis | Transitions, stability, composition | Polymers, composites, compounds |
| Spectroscopy | Identification and molecular fingerprinting | Organics, polymers, unknowns |
R&D crosses every material class, often in one program, from experimental powders to fully engineered composites.
Nanomaterials · Composites · Thin Films & Coatings · Ceramics & Glass · Battery Materials · Biomaterials.
Research and development often moves faster than established standards. That's why we follow the closest recognized testing method when available and use clearly documented, repeatable procedures when it isn't. Whenever a relevant standard applies, we follow it throughout the testing process and reference it in your report, giving you results that are easy to compare, easy to verify, and ready to support your research with confidence.
| Standard | What It Covers |
|---|---|
| ASTM E1508 | Quantitative elemental analysis by energy-dispersive spectroscopy (EDS). |
| ASTM E766 | Calibrating the magnification of a scanning electron microscope. |
| ASTM E1131 | Compositional analysis by thermogravimetry (TGA). |
| ISO 11357 | Thermal transitions by differential scanning calorimetry (DSC). |
| ISO 9277 | BET method: Specific surface area of solids by gas adsorption, |
| ISO 13320 | Particle size distribution by laser diffraction. |
| ISO 22412 | Particle size analysis by dynamic light scattering. |
| ASTM E1252 | Qualitative material identification by infrared spectroscopy (FTIR). |
| ASTM D3039 | Tensile properties of polymer-matrix composites. |
| ASTM E384 | Microindentation hardness of materials. |
| ASTM E407 | Microetching of metals and alloys for microstructure. |
Yes. Novel and experimental materials are a normal part of our work. When a recognized testing method exists, we use it. If there isn't one, we develop a practical, well-documented procedure that can be repeated and clearly explain any limitations. This gives you results you can confidently compare, review, and build your research on.
Yes. Every report includes a clear record of the methods used, testing parameters, and complete results, along with annotated data and references to the standards followed. This makes your findings easy to review, verify, and reproduce. The Raw data can also be provided on request.