High-Speed DIC for Impact and Crash Testing
In impact, crash, and drop testing, failure can happen in milliseconds. A component may deform, buckle, crack, or abs...
Read More →Material Testing
Full-field DIC across coupons, components, and biaxial fixtures, with strain values traceable to ASTM, ISO, and VDI/VDE standards
The Problem
Clip-on extensometers report averaged strain across 25 or 50 mm, understating the local strain in a neck by a factor of two or more.
The Solution
Every point on the surface (necking, Luders bands, PLC effects) captured as it evolves.
Tension, compression, shear, bend, bulge, and fracture on one non-contact platform.
Datasets formatted for simulation calibration: hardening, anisotropy, FLCs, damage parameters.
Applications
Standards-ready
“ASTM and ISO coupon protocols plus custom configurations for composites and additively manufactured specimens.”
Available as system or full engineering service
Talk to an engineer about your test standards and specimen types.
Featured Resources
High-speed infrared imaging at 20,000 fps during split-Hopkinson pressure bar experiments on graphite-fiber and epoxy ...
Read more →3D Digital Image Correlation (DIC) provides the ability to measure non-contact 3D coordinates, displacements and ...
Get access →A cyclic tension-compression testing program was conducted on flat specimens of TPN-W®780 (Three Phase Nano) and DP980 ...
Read more →FAA technical report (DOT/FAA/AR-09/4) from Wichita State University's National Institute for Aviation Research ...
Read more →Yield curves (true-stress vs. true-strain curves) describe a material’s work-hardening behavior during forming and are ...
Read more →Full field measurement of strain and strain rate in split Hopkinson bar experiments using the Aramis three-dimensional ...
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Key Products & Systems
The full 3D DIC portfolio
Trilion's ARAMIS family covers portable on-machine testing through fixed-base certification and motion analysis.
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Flagship 3D DIC System
Full-field strain and displacement measurement for components and structures. Scales from coupon to full-scale testing.
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Entry-Level 3D Optical Testing
Compact single-sensor DIC for standardized material testing. Tensile, compression, shear, and bend tests.
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Optical Forming Analysis
Full-field forming analysis for sheet metal draw-in, thinning, and formability evaluation per FLC standards.
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Non-Contact Video Extensometer
Replace clip-on extensometers with non-contact video strain measurement. ISO 9513 verified.
Learn more →Ultra high-speed CMOS imaging
The fastest Phantom cameras ever built. Up to 1.75 million fps at reduced resolution, 76 Gpx/s throughput, and BSI sensor sensitivity for ballistics, fluid dynamics, and fracture mechanics.
Learn more →High-resolution high-speed imaging
T-Series cameras pair multi-megapixel resolution with thousands of frames per second. Ideal for material testing with DIC, automotive crash analysis, and biomechanics motion capture.
Learn more →High-speed megapixel imaging
Nova S cameras deliver megapixel resolution at high frame rates with low-light sensitivity. Built for drop tests, impact analysis, and laboratory R&D imaging.
Learn more →4K high-speed imaging
Nova R cameras combine 4K resolution with high frame rates for slow-motion capture where you cannot afford to lose detail. Common picks for film production reference, large-area material testing, and broadcast slow-mo.
Learn more →Ultra high-speed thermal imaging
M3k captures thermal events at up to 90,000 fps in subwindow mode, resolving microsecond-scale temperature transients. Used for failure analysis, material thermal response, and friction studies.
Learn more →Cooled MWIR thermal imaging platform
Modular cooled-detector platform from InfraTec covering 320 x 256 to 1280 x 1024 sensor formats. Calibrated for quantitative thermography in R&D, NDT, and process monitoring.
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Full-field DIC strain and motion analysis
ZEISS CORRELATE is the digital image correlation environment in the ZEISS Quality Suite. Run 2D and 3D DIC for full-field strain, displacement, motion tracking, and FEA correlation. Available in a free tier for evaluation and 30-day trials, plus a Professional tier that adds advanced workflows, certified reporting, and FEA pairing.
Learn more →Material property calculation and standardized data exchange
Compute material properties (yield, modulus, Poisson ratio) directly from DIC stress-strain data and export to standard FEA material card formats. Removes manual post-processing across tensile, compression, and shear coupon programs.
Learn more →NIST-traceable certification for optical measurement systems
Verify ARAMIS and CORRELATE system accuracy against a NIST-traceable t.Check gauge block with automated pass and fail reporting. Required for ISO 9513 and audit-grade testing programs.
Learn more →Laser speckle and marker etching for DIC alignment
Apply repeatable speckle patterns and coded markers (QR, ArUco) to specimens via laser etching. Improves DIC correlation quality and adds per-specimen traceability without disposable sprays or stickers.
Learn more →Thermal chamber automation with synchronized DIC capture
Drive environmental chamber heat, cool, and soak profiles while synchronizing camera acquisitions. Enables temperature-controlled DIC and digital scanning programs without operator babysitting.
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Physical Simulation Systems for Materials Research and Manufacturing
Gleeble's line of thermo-mechanical simulators purpose-built to address the most demanding challenges in materials testing. Whether you're developing next-generation alloys, optimizing manufacturing processes, or validating material performance under extreme conditions, Gleeble's physical simulation systems deliver the precision, repeatability, and control that materials scientists and engineers demand.
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In impact, crash, and drop testing, failure can happen in milliseconds. A component may deform, buckle, crack, or abs...
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Why “Legacy Knowledge” Is Undermining Your ARAMIS Data
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