Distributed-element model

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Related lectures (21)

Introduction to LEM and Equivalent Circuits

Covers the Lumped Element Model, 'lumping' systems, equivalent circuits, and domain conversion.

Resonators: Eigenvalue Problem and Single Mode Solutions

Explores resonators' equation of motion, stress effect on frequency, and single mode solutions.

Force Detection: Basics and Structures

Covers force detection basics, structures, and mathematical models for detecting forces effectively.

Mechanical Scaling: Lumped Element Modelling

Covers Lumped Element Modelling in mechanical systems, simplifying complex systems into discrete elements that exchange energy.

Thermal FEM: Steady State and Transient Analysis

Explores steady-state and transient thermal analysis of silicon beams, including convection effects and practical exercises.

Localized vs Distributed Circuits: Criteria 1 and 2

Discusses criteria to distinguish between localized and distributed circuits based on time and frequency considerations.

Circuits: Localized or Distributed

Explores the theory of distributed circuits in electromagnetism and the importance of considering time delays in various engineering applications.

Transient Heat Diffusion: Lumped Capacitance Model

Introduces the lumped capacitance model for solving transient heat conduction under convective cooling, emphasizing the importance of the Biot number.

Direct Current Circuits: Kirchhoff's Laws and Resistors

Covers DC currents, resistors, capacitors, Kirchhoff's laws, and electromotive force in electric circuits.

Electrical Networks: Phasor Diagrams and Reactive Power

Explores active and reactive losses in electrical networks using phasor diagrams.

Finite Element Method: Basics and Applications

Covers the basics of the Finite Element Method for solid and structural modeling.

Delay Models: Resistance, Capacitance, and Inductance

Explores resistance, capacitance, and inductance calculations, MOS transistors, delay models, power dissipation, and PVT variations.

Transient Heat Transfer: Spatial Effects

Explores transient heat transfer with spatial effects, including Bi number and convective cooling.

Solid Surfaces in a Liquid: Surface Charge and Electrical Double Layer

Explores solid surfaces in a liquid, electrolyte presence, surface charge, and electrical double layer formation.

Homology of Riemann Surfaces

Explores the homology of Riemann surfaces, including singular homology and the standard n-simplex.

Groups & Rings: Morphisms, Kernels, and Injectivity

Explores group morphisms, kernels, and injectivity in group theory.

Concept of Proof in Mathematics

Delves into the concept of proof in mathematics, emphasizing the importance of evidence and logical reasoning.

Impedance and Kirchhoff Laws

Introduces impedance and Kirchhoff's laws for circuits, transfer functions, and filters.

Discrete Pressure Modes in Lecture 4

Explores discrete pressure modes and their impact on system analysis.

Fluid Dynamics: Navier-Stokes Equations

Covers the fundamentals of fluid dynamics and the Navier-Stokes equations for incompressible fluids.

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