MatX Lab offers fifteen analytical disciplines, from imaging and elemental analysis to mechanical, thermal, and structural testing, spanning the full range from the atomic scale to bulk performance.
Most materials questions come down to choosing the right method and applying it correctly. MatX Lab offers fifteen analytical disciplines, from imaging and elemental analysis to mechanical, thermal, and structural testing, spanning the full range from the atomic scale to bulk performance. We match the method to your question rather than to a fixed instrument set, and we coordinate multiple disciplines into one program when a question needs more than one.
You receive the full extent of every methodology with only one point of contact and one comprehensive report.
From there, we go with the decision that you need to make, then recommend the methodologies that will satisfy your needs, all managed through an integrated network of certified partner laboratories. There are many cases where more than one methodology is required; for example, the investigation of a failure may require imaging, elemental analysis, and mechanical testing, among others.
Resolves structure, morphology, and defects from the macro scale to the atomic scale by optical, SEM, and TEM. The direct way to see microstructure, coatings, and fracture surfaces.
Non-destructive imaging of internal three-dimensional structure by computed tomography. Maps porosity, voids, and defects and measures internal features without cutting the part.
Determines crystal structure, phase, texture, and residual stress by X-ray diffraction and EBSD. Reads the crystallographic structure that governs strength and cracking.
This is useful in determining composition and purity from bulk levels to parts per billion via ICP, XRF, and electron beam techniques. Determines what the material is comprised of.
Determination of polymers and organics via molecular structure, using FTIR, Raman, and other spectroscopic techniques. Pathway to identifying, deformulating, and contaminating materials.
Characterizes the chemistry of the outermost nanometers by XPS, Auger, and ToF-SIMS, with depth profiling. Reads the surface that adhesion, corrosion, and contamination depend on.
Measures particle size, shape, surface area, count, and identity for powders, suspensions, and contaminants. Gives the population statistics behind a material.
This Measures strength, hardness, toughness, fatigue, fracture, and creep. Defines how a material behaves under load and whether it meets its specification.
Measures transitions, stability, expansion, and composition versus temperature by DSC, TGA, DMA, and TMA. Shows how a material behaves as the temperature changes.
Here, the measurement of density, melt flow, viscosity, hardness, and moisture. Captures the bulk properties that govern processing and lot-to-lot consistency.
In this case, testing of the degradation behavior of materials in salt, moisture, chemical environment, and stress through chamber, electrochemical, and immersion methods. Resistance ranking and corrosion mechanism identification are done.
It helps in measurement of resistivity, dielectric behavior, insulation resistance, and breakdown. Quantifies how a material carries, blocks, or stores electrical energy.
Measures ignition, flame spread, heat release, and smoke, and classifies materials against ratings such as UL 94. Characterizes how a material behaves in fire.
Measures color, gloss, haze, transmittance, and yellowing. Turns appearance into numbers you can specify and control.
Fractography, microstructural analysis, material composition, and non-destructive examination are all combined in a single failure analysis test. The reason for the failure of that particular component is determined along with the way to prevent future failures.
Each one of our disciplines is tested using established testing procedures, which we harmonize with the test methods you specify under ASTM, ISO, IEC, UL, MIL-STD, SEMI, and IPC, where appropriate for that industry. The designation page for each procedure provides a list of the most pertinent designations to that discipline, and our Standards hub explains what alignment means and what it does not.
X-ray CT: ASTM C813: ASTM D1204: ASTM D7811
Salt Spray: Cyclic Corrosion: MIL-STD-883: ASTM D1599: ASTM B117
Dielectric Properties: IEC 60243: ASTM A348: ASTM D149/50
GD-MS: EDS/WDS: LIBS:ASTM B568: ASTM E415
MIL-STD-883: ASTM A1032: ASTM A388: ASTM A418: ASTM A435
UL 94: Smoke Density: ASTM C1166: ASTM D3675
SEM: TEM: SIMS: FIB: ASTM E112: ASTM E1382: ASTM E407: ASTM E930: ASTM E766
MIL-STD-883: ISO 178: ISO 180: ISO 604: ASTM A1038: Tensile: Fatigue: Impact: Nanoindentation
ASTM D4086: ASTM D4877: ASTM D4890: ASTM D6290: ASTM D6762
ASTM B213: ASTM B311L ASTM B923: ASTM C1069
ISO 1133: ASTM C1350: ASTM C271: ASTM C272: ASTM C623: MFR/MFI:
UV-Vis: Raman: GCMS: mFTIR: NMR: CGC
EBSD: XRD: ASTM E81
ASTM D7490, XPS: AES: ToF-SIMS: GD-OES:
TGA: DSC: DMA: TMA: ASTM C177: ASTM C201: ASTM C338: ASTM C539: ASTM C598
Describe the material and the decision you are trying to make, and we recommend the right method or combination. Choosing the method is part of the service.
Yes. Many questions need multiple disciplines/methods, and we sequence them, non-destructive first, so one sample supports the whole investigation where possible.
We scope, coordinate, and manage your testing through a network of accredited partner laboratories, then consolidate everything into one report. Your program is never limited to a single facility's instruments.
With MatX Lab, your testing is coordinated through a network of accredited partner labs; hence, no matter the combination of methods used, they are all coordinated from one manager and one single accountable point. You will be coordinating with one single contact person and get one single report. Our methods are coordinated with ASTM, ISO, IEC, UL, and MIL-STD standards where applicable. MatX Lab is an analysis service provider and does not issue any form of certification.
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