News & Events

Article in the 2012 COMSOL News magazine

September 1, 2012
Veryst Engineering, in collaboration with Nordson EFD, published an article in the 2012 COMSOL News magazine titled "Modeling of Laminar Flow Static Mixers." 

Article in R&D Magazine features Veryst

February 15, 2012
Dr. Jorgen Bergstrom was featured in an R&D Magazine article titled “The Indispensable Biomaterial.” Silicone elastomers have grown in importance to the medical device industry, yet their design is particularly challenging given their physical complexity. Dr. Bergstrom discusses how nonlinear finite element analysis and advanced material are facilitating the design process.

Participation in ASTM Medical Device Committee

November 16, 2011
Dr. Stuart Brown attended the ASTM Medical Device Committee (F04) meeting in Tampa, Florida, November 16-17, 2011. He participated in subcommittee meetings involved in standard development on absorbable polymers, PEEK, tissue-engineering medical products (TEMPS) and orthopaedic devices.

Veryst now a COMSOL Certified Consultant

April 25, 2011
Press Release: BURLINGTON, MA (April 25, 2011) — COMSOL, Inc., developer of the industry-leading COMSOL Multiphysics modeling and simulation environment for scientists and engineers, announces that Veryst Engineering LLC has become a COMSOL Certified Consultant.

Patents issued to Stuart Brown

January 1, 2011

Stuart Brown, Ph.D. was issued Patent 7,740,595 titled "Tissue and Fluid Sampling Device.”   This patent describes a biopsy needle with multiple sampling ports, enabling both multiple samples in a single procedure and the abili

Conference presentations

May 1, 2010
Dr. Jorgen Bergstrom presented papers on a variety of topics at conferences around the world in 2009 and 2010.

Publication: Veryst develops advanced constitutive model for UHMWPE

April 1, 2010
Ultra-high molecular weight polyethylene (UHMWPE) is used extensively in biomedical devices due to its mechanical properties, including high impact and wear resistance. Veryst developed an advanced thermomechanical constitutive model for UHWMPE where the microstructure of the material is represented using three structural domains that capture the experimentally-observed, nonlinear, time- and temperature-dependent response at small and large strains.

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