Scaling Laws in Micro & Nanosystems

Related lectures (28)

Introduces the fundamental concepts of Continuum Mechanics and discusses the density of flux and mass conservation.

Covers the fundamental concepts of physics related to the motion of objects in a plane.

Focuses on modeling a parallel plate capacitor using Comsol, emphasizing clear project ideas and group collaboration.

Explores the kinetic energy theorem through practical applications and examples, illustrating its relevance in various scenarios.

Explores fundamental cosmological puzzles related to dark matter and energy.

Explores matter, space, time, density, volume, and reference frames in understanding motion.

Explains electrostatic force, Coulomb's law, and force calculation between charges.

Introduces the basics of physics, emphasizing curiosity, observation, and mathematical description of natural phenomena.

Explores position vectors, velocity, and acceleration in motion in the plane.

Explores various methods of transduction for detecting motion and deformation in microscale applications.

Covers Newton's three laws of motion, fundamental forces, and exercises, including gravitational and electromagnetic forces.

Explores ion crystals, conductors, and Poisson/Laplace equations in electrostatics, including charge behavior and energy calculations.

Introduces charge separation, triboelectric series, relevant aspects of charges, and Coulomb force interactions.

Explores pressure, forces, and motion, emphasizing their interplay and effects on surfaces.

Explores measurement techniques for motion and vibration, including strain gauges, eddy currents, accelerometers, and their applications.

Introduces charge separation and the Coulomb force in electrostatics.

Introduces electrostatics, Coulomb's law, electric fields, and charge behavior in materials.

Explores Newton's laws, fundamental forces, and exercises on these topics.

Page 1 of 2