Strapdown Inertial Navigation

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Explores gyroscopes, their history, applications in aeronautics, and effects on rotating objects.

Explores the use of inertial sensors for gait analysis and wearable systems.

Covers the principles of inertial sensors and drift removal techniques.

Explores mechanics in inertial and non-inertial frames, covering forces, Coriolis effect, and Poisson formula.

Explains gyroscopic motion, moments of inertia, and precession principles.

Explains gyroscopes' principle and operation, focusing on capacitive force and MEMS technology.

Explores gyroscopes and the conservation of angular momentum, demonstrating stability through rotational dynamics and gyroscopic effects.

Explores mechanics in accelerated frames, emphasizing inertial forces and their effects on motion.

Covers low power sensor technology for IoT and wearables, focusing on activity sensors based on MEMS and biosignals.

Explores sensor technologies in MEMS, focusing on pressure sensors, accelerometers, and gyroscopes, and highlights the significance of sensor fusion.

Covers scaling laws in micro/nanomechanical devices and explores diverse MEMS applications.

Discusses the design and importance of flexible guides in microtechnology, highlighting their benefits and applications in MEMS devices.

Covers advanced physics topics such as reference frames, dynamics of the Earth, and the Foucault pendulum.

Explores gyroscopic stability principles, applications, and phenomena in various objects and the Earth.

Covers the fundamentals of strapdown inertial navigation and attitude solving in different frames.

Covers the derivation of formulas for velocity and acceleration changes when switching frames, with practical examples like the Foucault pendulum.

Explores the Coriolis effect, explaining forces and deviations in trajectories due to Earth's rotation.

Explores dynamics in rotating frames, including centrifugal force and fluid behavior.

Covers hermetic capping, getters, vacuum requirements, leak rate measurement, and testing methods in MEMS packaging.

Covers dynamics in non-inertial frames, including transformation laws, Coriolis force, and examples of dynamic systems.

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