A predictive technique for evaluating structural vibration gain of damped suspensions in hard disk drives - Lowry, Mark (Microsystem technologies : sensors, actuators, systems integration, 2010)
Keywords: Applied sciences; Deformation; Design; Disk drives; Electronics; Electronics and Microelectronics; Energy dissipation; Energy storage; Engineering; Exact sciences and technology; Finite element method; Friction; Hard disks; Instrumentation; Instruments, apparatus, components and techniques common to several branches of physics and astronomy; Magnetic and optical mass memories; Mechanical Engineering; Mechanical engineering. Machine design; Mechanical instruments, equipment and techniques; Methodology; Microelectronic fabrication (materials and surfaces technology); Micromechanical devices and systems; Modal damping; Nanotechnology; Nomograms; Physics; Precision engineering, watch making; Resonant vibration; Semiconductor electronics. Microelectronics. Optoelectronics. Solid state devices; Storage and reproduction of information; Strain energy; Structural vibration; Technical Paper; Temperature; Viscoelasticity; Complex Shear Modulus; Voice Coil Motor; Hard Disk Drive; Vibration Suppression; Loss Factor; Finite element method; Vibration damping; Vibration; Resonant structure; Suspension; Hard disk; Modeling; Optimization