Lectures related to Structural analysis

Explores nonlinear geometric transformations in structural engineering, emphasizing accurate integration methods and practical applications.

Covers nonuniform torsion, strain energy, torsional constants, and shear flow in structural members with practical examples.

Covers final project presentations on precast concrete design in a seismic region.

Explores the plastic hinge method for inelastic deformation estimation and discusses the challenges of force-based design.

Covers the analysis of trusses, frames, and machines, focusing on strategies to solve rigid structures.

Introduces resultants in 3D, equilibrium in 2D, and free-body diagrams for structural analysis.

Covers hyperstatic-hypostatic systems, equilibrium, and constraints in structural mechanics.

Covers beam-column elements, limitations of plasticity models, and nonlinear geometric transformations in structural analysis.

Covers the analysis of rigid structures and strategies to solve isostatic trusses.

Explores space trusses, frames, and machines, emphasizing equilibrium, internal loads, and hierarchical design in structural metamaterials.

Provides an overview of advanced mechanisms analysis using Finite Element Method and Finite Element Analysis in engineering applications.

Analyzes cables under eccentric loads and inclined forces, discussing structural schemes and generalizations.

Explores load incrementing methods and convergence criteria for accurate structural analysis.

Covers the fundamentals of structural mechanics, including materials, mechanics vocabulary, the Eiffel Tower, and the collapse of the Quebec Bridge.

Emphasizes collaboration between architects and engineers for efficient structural design.

Explores virtual work in structural mechanics, emphasizing equilibrium states and the application of virtual displacements.

Covers the principle of superposition in statics, internal forces calculation, and structural elements.

Explores beam types, internal loads computation, and load diagrams, with a focus on historical context and practical examples.

Covers beams with distributed and concentrated forces, bending moment, shear force, and internal load diagrams.

Covers Finite Element Modeling in Structural Mechanics, building a first model to analyze a Polysilicon Micro-Cantilever and understand load types.