Veryst has extensive experience selecting and calibrating a material model to capture the most important aspects of material behavior for your specific material and conditions during use.
Once a material model has been selected and calibrated to the test data, Veryst recommends validating the model by performing a test with a stress state different from any used for calibration.
Veryst works with clients to develop high-performance, reliable, and manufacturable medical devices. We apply advanced characterization technologies, engineering analysis, and sophisticated simulation software to provide cost-effective solutions to time-critical engineering problems.
Veryst provides expert services for product design, manufacturing processes, and failure analysis of polymeric components. Our expertise includes experimental characterization, computer modeling, and failure analysis. Our work is based on advanced characterization and physically-based computer models to solve industrial problems involving polymer systems.
Veryst provides expertise in many aspects of simulation and analysis for use in product design, manufacturing processes, and failure analysis. This includes modeling and analysis involving polymer materials, multiphysics modeling, finite element analysis, computational fluid dynamics, compu
Veryst Engineering provides a variety of state-of-the-art characterization services, including Digital Image Correlation (DIC), high speed imaging, microscopy, and FTIR spectroscopy and microscopy for our clients.
Veryst can create test samples from raw materials, choosing the specimen preparation method that is most suitable for our clients' material and application.
Veryst can specify a test program—a standard combination of tests—that captures your material’s response for use with a particular material model in a variety of finite element software packages. We have developed packages for many common constitutive models, but can customize the test plan to any model.
Veryst is pleased to welcome Eric Schmitt, M.S. to its engineering team. Mr. Schmitt is a mechanical engineer who has worked in simulation, prototyping, testing, and product development roles.
Veryst engineers explain the advantages of time-temperature superposition (TTS) in this new article, just published. TTS is an advanced thermomechanical analysis method that allows rubber scientists and engineers to extrapolate the mechanical properties of polymeric materials to long times or high frequencies by using tests that last less than a day.
Dr. Sean Teller's article appears in RubberWorld magazine’s January, 2019 edition. Dr. Teller explains the different test methods available to test elastomers and TPEs, advantages and disadvantages, and more.
COMSOL offers an “inside look” at how Veryst’s engineers collaborate to produce accurate and reliable simulations.
Veryst has been granted a patent on our custom-designed drop tower for conducting high strain rate uniaxial tension and compression tests. This unique and versatile test system can be used to measure the high-rate stress-strain response of elastomers, thermoplastics, foams, engineering composites, thermosets, and biomaterials.
Dr. Jorgen Bergstrom et. al published an extended abstract on their work on testing and modeling the rate dependent behavior of polyether ether keytone (PEEK).