Structural Prefabrication

Base Knowledge

Structures and Reinforced Concrete

Teaching Methodologies

Theoretical-practical classes for exposition, discussion and problem solving. During the presentation and discussion of the subjects, the students will have an active participation in the class. Students will also be encouraged to technically and scientifically interpret practical problems and propose solutions according to the rules and processes learned. The clarification of doubts in the interpretation of the subjects, in the technological discussion of the execution processes and in the resolution of problems will be an important complement in the learning process. However, students will be strongly motivated to develop autonomous research work, modelling, calculating and detailing solutions.

Learning Results

Learn technical knowledge about prefabricated systems in metallic and mixed structures, concrete, wood and masonry; learn about the evolution of prefabricated systems towards more sustainable solutions today.
Acquisition and application of knowledge; increased understanding of systems; carrying out judgments and making decisions; increased ability to communicate and discuss technological issues; development of critical sense and self-learning.
Acquire knowledge and ability to select the main prefabricated systems, mainly in metallic and mixed structures, in concrete, wood and masonry; learn fundamental principles, design bases, preparation and execution concepts and processes; provide students with skills to judge, develop and monitor the execution of prefabricated solutions in urban spaces, to be built or to be rehabilitated, in a logic of safety and sustainability.

Program

1 – Sustainability in prefabrication
Sustainability and construction 4.0 in prefabrication LCA – parameters and indicators
Prefabrication – phases, concepts and models
2 – Prefabrication in concrete
Prefabricated elements and standards (EN 1992, EN 13369, EN 15050) Prefabricated systems, modeling and execution.
Dry and wet connections
Stability, quality and preservation
3 – Prefabrication in metallic and mixed structures construction systems; digital modeling and construction Compliance with standards and design bases Protection, sustainability and fire behavior
Connections
4 – Prefabrication with wooden structures
Wood and derivatives
Construction systems; modeling and digital production Durability, protection, sustainability and fire resistance Standards, design bases, stability and construction details Connections
5 – Prefabrication with masonry structures
Materials, components and construction systems Standards and bases for design and detailing
Connections

Internship(s)

NAO

Bibliography

Kind-Barkauskas F, et al. (2006). Construire en Béton, PPUR, Lausanne
Elliott K (2000). Multi-Storey Precast Concrete Framed Structures, Blackwell
Bruggeling A, Huyghe G (1991). Prefabrication with Concrete, Balkema
Steinle A, et al. (2019). Precast Concrete Structures, 2 Edition, Wiley
Negrão J, Faria A (2009). Projecto de Estruturas de Madeira, Publindústria
Dashofer V, et al., (2010). Avaliação, Cons. e Ref. de Estr. Madeira
Natterer J, et al. (2011). Construction en Bois, PPUR, Lausanne
Zhou L, et al. (2022). Design of Steel Structures – Materials, Connections, and Components, Elsevier Taly N (2010). Design of Reinforced Masonry Structures, 2nd Edition, McGraw-Hill
EN 1991 (2002). Eurocode 1 – Actions on Structures, CEN
EN 1995 (2008). Eurocode 5 – Design of Timber Structures, CEN
EN 1993 (2005). Eurocode 3 – Design of Steel Structures, CEN
EN 1992 (2005). Eurocode 2 – Design of Concrete structures, CEN
EN 1996 (2005). Eurocode 6 – Design of Masonry structures, CEN