The NNIN/C at the University of Michigan will be hosting a presentation on “Solving for Micro and Macro-scale Electrostatic Configurations using Robin Hood Solver.”, which will be broadcast live as a web based seminar.
Topic: Solving for Micro and Macro-scale Electrostatic Configurations using Robin Hood Solver.
Date: March 14th, 2013
Time: 11:00 am – 12:00 pm EDT.
Toni Drabik, Sales Director at Artes Calculi Ltd.
Hrvoje Abraham, CEO, Artes Calculi Ltd.
This project aims at improving the efficiency of the manufacturing process of MEMS while decreasing the production cost by considering at the design stage the uncertainties in such a way that a range of the MEMS properties can be predicted for the manufactured products, which will be immune to factors that could adversely affect performance. This approach is called robust design and it is focused on achieving target reliability.
IntelliSuite was the first MEMS-specific CAD tool and has been under
development for over 20 years. In this free webinar, understand how this
industry-standard software can help MEMS designers, process engineers,
and professors save time and costs in the development cycle, share their
designs with others, and teach students about MEMS. The webinar will
cover: process development using virtual fabrication tools, etch recipe
development using process simulators, design rule checking and
cross-sectioning tools for MEMS layout, design exploration and
optimization using behavioral and parametric modeling, recent
developments in automated meshing algorithms, discussion of coupled
FEM-BEM solvers for MEMS multiphysics analysis, linking MEMS models to
We are currently soliciting abstracts for the 2012 ASME IMECE conference on November 9-15, 2012 in Houston, TX.The symposium is entitled Quality and Reliability of Electronic/Photonic Packaging, MEMS, and NEMS and is part of the Micro- and Nano- Systems Engineering and Packaging Track.
We are currently soliciting abstracts for the 2012 ASME IMECE conference on November 9-15, 2012 in Houston, TX.The symposium is entitled Tribology of Thin Films and Small-Scale Structures and is part of the Mechanics of Solids, Structures and Fluids Track.
I am looking for a postdoctoral position. I have expeience in finite element modeling and laboratory measurements of ultrasonic waves in ferroelectric and piezoelectric plates, piezoelectric transducers and actuators, MEMs. Also worked in the field of computational electromagnetics. Please look at the attached resume.
Energy harvesting is the process of converting energy that will otherwise be dissipated into the ambient environment, into useful energy to do work. I shall focus this discussion on motion-based energy harvesting. Motion-based energy harvesting is the process of converting dissipated mechanical energy into electrical energy. Sources of mechanical energy include the ocean waves, wind, human motion, vehicular traffic, and vibrations in buildings and bridges. This source of energy is ubiquitous and pervasive, and yet, it is one of the least developed energy harvesting technology.
Welcome to the January 2010 issue! In the issue of May 2007 , Prof. Xiaodong Li outlined the existing experimental methods for mechanical characterization of 1D nanostructures. In this issue, I will discuss along the same line but focus on experimental methods enabled by microelectromechanical systems (MEMS).
Arch-shaped microelectromechanical systems (MEMS) have been used as mechanical memories, micro-relays, micro-valves, optical switches, and digital micro-mirrors. A bi-stable structure, such as an arch, is characterized by a multivalued load deflection curve.
I am a Mechanical Engineer with a Masters from Indian Institute of Science Bangalore. I have been working in various fields of Mechanical Engineering: Product development of forging components and in software development of hyper-elastic finite element software development.
For more than 15 years, carbon nanotubes (CNTs) have been the flagship material of nanotechnology. Researchers have conceived applications for nanotubes ranging from microelectronic devices to cancer therapy. Their atomic structure should, in theory, give them mechanical and electrical properties far superior to most common materials.
Laguna Beach, CA June 23, 2008 -- Kebaili Corporation a leading California based high-tech company in MEMS and nanotechnology, announced today the release of the KMHP-100 Series, the industry’s first commercially available off-the-shelf MEMS microhotplates for researchers and scientists in innovative chemical sensor research and development applications.