Lectures related to Advanced Timber Plate Structural Design: Joinery Generation Method

Covers advanced timber plate structural design and innovative architectural applications.

Covers advanced timber plate structural design and analysis methods.

Covers the macroscopic modeling of timber plates and advanced structural design.

Covers advanced timber plate structural design and finite element analysis using ABAQUS and OpenSees software.

Covers space trusses, frames, and machines, emphasizing equilibrium analysis and structural design principles.

Explores advanced timber plate structural design, covering prefabrication, optimization tools, robotic assembly, and joint mechanics.

Covers the CAD-to-CAE data transformation process for advanced timber plate structural design.

Introduces the finite element software STATIK 7, covering its functionalities and applications in structural engineering.

Covers advanced timber plate structural design and optimization of force flow.

Explores advanced timber plate structural design principles, joint testing, assembly plates, and foundations.

Covers the advanced design of timber plate structures and fundamental modes.

Covers the tutorial on Fabrication and 2D Nesting Methods using Rhino3D and Grasshopper.

Introduces working with surfaces, polysurfaces, and solids in Rhino, covering rendering, material editing, and mesh creation.

Covers the introduction to double-layer timber plate shell structures and software installation in Python environment.

Emphasizes collaboration between architects and engineers for efficient structural design.

Explores space trusses, frames, and hierarchical structural metamaterials, including loaded frames and hydraulic cylinders.

Covers the analysis of space trusses, frames, and mechanisms, emphasizing the importance of hierarchy in structural design.

Covers advanced timber plate structural design, focusing on integral mechanical attachment and experimental studies.

Introduces the fundamentals of working with NURBS and surfaces in Rhino, covering tools for creating curves, surfaces, and meshes.

Explores pavilion structure design, addressing concavity inversion and plan limitations through detailed modeling and identification techniques.