There is strong experimental evidence for the existence of strange modes of failure of MEMS devices under shock. Such failures have not been explained with conventional models of MEMS. These failures are characterized by overlaps between moving microstructures and stationary electrodes, which cause electrical shorts. This work presents a model and simulation of MEMS devices under the combinatio...

Microelectromechanical systems (MEMS) have an unmatched ability to incorporate numerous functionalities into ultra-compact devices, and due to their versatility and miniaturization, MEMS have become an important cornerstone in biomedical and endoscopic imaging research. To incorporate MEMS into such applications, it is critical to understand underlying architectures involving choices in actuati...

As more MEMS-based products and applications move from research to commercialization, there is a growing array of choices for design and analysis software tools. Increasingly, mainstream CAD and CAE tools can be relied on to deliver robust capabilities previously available only with specialized, often expensive, MEMS-focused tools. Given the technical and business advantages of mainstream tools...

An alternative to a classical wavelength interferometer (an array of hand-assembled etalons consisting of two semitransparent mirrors separated by a fixed-cavity) is the implementation of wide band tunable filter using Micro-ElectroMechanical Systems (MEMS) technology. This approach will allow a single tunable device to replace an array of fixed-cavity filters reducing cost and parts. MEMS tech...

The consideration of compliant mechanisms as Microelectromechanical Systems (MEMS) is the focus of this research endeavor. MEMS are micron to millimeter devices that combine electrical, mechanical, and information processing capabilities on the same device. These MEMS need some mechanical motion or parts that move relative to each other. This relative motion, using multiple parts, is not desire...

MEMS (Micro Electro Mechanical System) gyroscopes have been widely applied to various fields, but MEMS gyroscope random drift has nonlinear and non-stationary characteristics. It has attracted much attention to model and compensate the random drift because it can improve the precision of inertial devices. This paper has proposed to use wavelet filtering to reduce noise in the original data of M...

Advanced testing methods for the dynamics of microdevices are necessary to develop reliable marketable microelectromechanical systems (MEMS). The main purpose for MEMS testing is to provide feedback to the design-and-simulation process in an engineering development effort. This feedback should include device behavior, system parameters, and material properties. An essential part of a more effec...

In this paper, we reviewed some of the microelectromechanical system (MEMS) research efforts for high frequency applications. The efforts can be generally divided into two areas: planar reconfigurable transceivers and phased arrays using MEMS devices. For the planar transceivers, the interest is in demonstration of RF MEMS devices with a focus on integration issues including architectures and f...

Widespread acceptance of micro-electro-mechanical systems (MEMS) depends highly on their reliability, both for large-volume commercialization and for critical applications. The problem of multiple dependent failure processes is of particular interest to MEMS researchers. For MEMS devices subjected to both wear degradation and random shocks that are dependent and competing, we propose a new reli...

A hierarchical MEMS synthesis and optimization architecture has been developed for MEMS design automation. The architecture integrates an object-oriented component library with a MEMS simulation tool and two levels of optimization: global genetic algorithms and local gradient-based refinement. An object-oriented data structure is used to represent hierarchical levels of elements in the design l...