West Coast Simulation delivers multiphysics simulation and analysis
and expert engineering consulting — solving problems
involving multiple interacting physical phenomena through non-standard and non-linear couplings.
West Coast Simulation provides customer-driven solutions to complex engineering
problems involving multiple physical phenomena. We serve high-tech industries that need
pressing technical issues resolved on a deadline. We are a
COMSOL Certified Consultant.
Multiphysics Simulation & Analysis
Design, development, and implementation of multiphysical system models with associated
analysis and recommendations. We routinely join large-scale design projects, contributing
novel technical designs and core intellectual property. Physical modeling frequently
uncovers unexpected technical issues — and gives you the information needed to resolve them.
Expert Witness for Patent Litigation
Testifying Experience:
9 Depositions, 1 Arbitration, 2 District Court Cases
Technical Areas of Testimony:
Fluid Mechanics, CFD, Microfluidics, Droplet Microfluidics,
MEMS, Digital PCR, DNA Sequencing, and Cell Sorting
Efficient Energy Reuse
Novel vapor-compression process designed to efficiently raise the temperature of waste heat
from high-performance computing, so the thermal energy can be reused for district heating
and industrial processes.
Patents:
4 pending, 4 issued
Work Samples
Simulation Gallery
A selection of simulation projects spanning computational fluid dynamics,
microfluidics, and electrochemistry — showing the breadth of our multiphysics capability.
Select any image to enlarge; use the arrow keys to move through a set.
Areas of Expertise
50+ Combined Years of Numerical Simulation Across Physics Domains
West Coast Simulation has extensive experience in the numerical simulation of a
wide range of physics, spanning the following areas.
Fluid Flow
Microfluidic Flow
Computational Fluid Mechanics
Fluid–Structure Interaction
Chemical Engineering
Chemical Reaction Engineering
Flow Sheet Development & Analysis
Thermal Management
Heat Transfer
Thermodynamics
Electromagnetics
RF Systems
Photonic Structures & Systems
Light Scattering
Electrical Motors & Generators
Acoustics
Microfluidic Acoustics
Large-Scale Systems
Semiconductor & MEMS
MEMS Design & Fabrication
Semiconductor Process Development
Intellectual Property
Conceptual Development
Technical IP Strategy
Engineering Development of IP Concepts
Specification & Claim Development
Dr. Carl D. Meinhart
President & CEO · West Coast Simulation, Inc.
About
Our Mission & Leadership
Our mission is to develop key insights into physical phenomena. We use precision numerics
and engineering principles to understand and improve physical systems, with a focus on
rapid product development, design, and validation.
West Coast Simulation provides customer-driven solutions to complex engineering problems
involving multiple physical phenomena. We specialize in modeling and analyzing systems that
interact through non-standard or non-linear couplings — serving technology industries that
need critical, time-sensitive technical issues resolved.
Dr. Carl D. Meinhart is President and CEO. He leads the technical team with 50+ years of
combined COMSOL experience, on problems ranging from fundamental microfluidics research to
the analysis of commercial products. Dr. Meinhart is a Professor of Mechanical Engineering at
the University of California, Santa Barbara, holds 28 patents and 180+ publications, and is
a Fellow of the American Physical Society.
Dr. Meinhart has served as an expert witness for patent litigation in 14 cases
over the past 12 years, relating to fluid mechanics, CFD, microfluidics, droplet
microfluidics, MEMS, digital PCR, DNA sequencing, and cell sorting. He has been
deposed 9 times and has testified in one arbitration and two district
court cases. In addition, Dr. Meinhart has authored numerous reports for the ITC and PTAB.
Dr. Meinhart joined the UCSB faculty in 1996 and was promoted to full professor in 2007. He
is widely known for co-developing micron-resolution Particle Image Velocimetry,
a technique used throughout the research community to measure detailed fluid motion in
microfluidic devices. With Prof. Martin Moskovits' group at UCSB he co-invented a
free-surface microfluidics / SERS technique for detecting gas-phase molecules
with ultrahigh sensitivity and specificity, applicable to vapor detection of explosives and narcotics.
“For contributions to the seminal developments of micron resolution particle image
velocimetry and free-surface microfluidics for surface enhanced Raman scattering
technology, and for providing deeper understanding of the flow of fluids over surfaces in
the extremes of microscopic slip and high Reynolds number turbulence.”
— American Physical Society Fellowship citation, 2011