The course aims at providing the student of architecture with theoretical elements and methods necessary to recognize and understand structures in architecture and to their conceptual design since the first year of the bachelor course.
The course aims at providing the student of architecture with theoretical elements and methods necessary to recognize and understand structures in architecture and to their conceptual design since the first year of the bachelor course.
The general objectives of the course are:
- the knowledge of the most frequent structural forms and construction techniques in historical and contemporary architecture;
- the knowledge of the fundamentals in Statics of Structures;
- the knowledge of the methods for conception of the structural organism of a building, of its representation and of its quantitative control during the conceptual phase of the architectural design;
- the ability to include the building structure in the general framework of the architectural design;
- the ability to define, for some simple structural typologies, a mechanical model of the structure and its possible static diagrams;
- the ability to apply to them the laws of equilibrium.
The general objectives of the course are:
- the knowledge of the most recurrent structural forms and construction techniques in historical and contemporary architecture;
- the knowledge of the fundamentals in Statics of Structures;
- the knowledge of the methods for conception of the structural organism of a building, of its representation and of its quantitative control during the conceptual phase of the architectural design;
- the ability to include the building structure in the general framework of the architectural design;
- the ability to define, for some simple structural typologies, a mechanical model of the structure and its possible static diagrams;
- the ability to apply to them the laws of equilibrium.
Elements of Physics and Mathematics currently taught in high school
Elements of Physics and Mathematics currently taught in high school.
1. Morphology of steel, reinforced concrete, masonry and timber buildings (5 hrs)
2. Elements of Statics of Structures: forces and moments; equilibrium assessment in plane and space; constraints and reactions; concept of the beam; internal forces, truss girders and systems of beams (22 hrs)
3. Long span structures: arches, cable stayed structures, suspended structures, spatial trusses (18 hrs)
4. Actions on buildings (5 hrs)
5. Concept design of bracing systems and floor structures (9 hrs)
6. Preliminary sizing for beam systems made in steel, reinforced concrete and timber (3 hrs)
7. Conceptual design of the building overall structure and preliminary sizing of the structural elements with reference to the architectural design developed at the same time by the students along the 1st year design unit (18 hrs)
1. Morphology of steel, reinforced concrete, masonry and timber buildings (about 5 hrs).
2. Elements of Statics of Structures: forces and moments; equilibrium assessment in plane and space; constraints and reactions; concept of the beam; internal forces, truss girders and systems of beams (about 22 hrs).
3. Long span structures: arches, cable stayed structures, suspended structures, spatial trusses (about 18 hrs).
4. Actions on buildings (about 5 hrs).
5. Concept design of bracing systems and floor structures (about 9 hrs).
6. Preliminary sizing for beam systems made in steel, reinforced concrete and timber (about 3 hrs).
7. Conceptual design of a structural organism in parallel to the architectural design developed within the Architecture Design Studio. Alternatively, and in particular in case of online teaching, reading of the structural organism of an existing architecture on the basis of documents in the literature. In both cases, the exercise will include the analysis of the actions on the structure, the proposal of a simplified mechanical model of the structure, the structural analysis of its mechanical behaviour, the discussion on the expected effects on the architectural features (about 18 hrs).
The Course is organised in ex cathedra lessons (77%) and exercises (23%). The exercises will take place during the second half of the Course and they will focus on the contents described in item 7 above. The exercises will be developed by teams composed by 3-4 students each.
The Course is organised in ex cathedra lessons (77%) and exercises (23%). The exercises will take place during the second half of the Course and they will focus on the contents described in item 7 above. The exercises will be developed individually in case of online teaching or by teams composed by 3-4 students each in case of face-to-face teaching.
Handouts of the course, produced by teachers and made available for downloads from Teaching Portal during the delivery of the Course. Further textbooks suggested for insights:
[1] Aurelio Muttoni, L’arte delle Strutture – Introduzione al funzionamento delle strutture in Architettura, Editore: Accademia di Architettura di Mendrisio, Collana: i Documenti Accademia Architettura Mendrisio, 2006.
[2] Erasmo Viola, Esercitazioni di Scienza delle Costruzioni 1- Strutture isostatiche e geometria delle masse, Pitagora Editrice Bologna, Collana: LPDI Lineamenti Propedeutici di Ingegneria, 1993.
[3] Schulitz Helmut C., Sobek Werner, Habermann Karl J., Atlante dell’acciaio, UTET, Collana: Grande atlante di architettura, 1999.
[4] Natterer Julius, Herzog Thomas, Volz Michael, Atlante del Legno, UTET, Collana: Grande atlante di architettura, 2000.
Handouts of the course, produced by teachers and made available for downloads from the Teaching Portal during the delivery of the Course.
Further textbooks suggested for insights:
[1] A. Muttoni, The Art of Structures – Introduction to the functioning of structures in Architecture, EPFL Press, 2011.
[2] A. W. Charleson, Structure as Architecture – A source book for architects and structural engineers, ELSEVIER, 2005.
[3] A. J. Macdonald, Structure and Architecture, ELSEVIER, 2001.
[4] A. J. Macdonald, Structural Design for Architecture, Architectural Press, 1997.
[5] H. C. Schulitz, W. Sobek, K. J. Habermann, Steel Contruction Manual, Birkhauser, 2000.
[6] J. L. Meriam, L. G. Kraige, Engineering mechanics – Volume 1: Statics, Wiley, 2006.
[7] R. Hulse, J. Cain, Structural Mechanics, Macmillan, 1991.
[8] Erasmo Viola, Esercitazioni di Scienza delle Costruzioni 1- Strutture isostatiche e geometria delle masse, Pitagora Editrice Bologna, 1993.
Modalità di esame: Prova orale obbligatoria; Elaborato scritto individuale; Elaborato progettuale in gruppo;
[1] All exams will be oral. Their mode will vary depending whether or not the student has got a valid written-test grade in previous years of enrollment in the same Course. A valid written-test grade is a positive grade (i.e. greater than or equal to 18/30) got after Dec. 2018 and never renounced by the student during an oral exam.
[2] Students with a valid written-test grade will take the oral exam by answering questions on parts of the course program not covered by the written test (i.e. structural morphology, long-span structures, structural conception), and additionally by discussing and defending the exercise of structural conception or structural analysis developed during the Course. The duration of this oral exam will be of about 30 minutes. The final grade will result from the weighted grades obtained by the student during the written test and oral exam, being the weights equal to 2/3 and 1/3 respectively.
[3] Students without a valid written-test grade will take the oral exam in two stages. In the first stage, they will answer questions and solve one or more exercises on Statics, through writing and drawing digitally on the virtual screen, under the video-surveillance of the examiner. The duration of this first stage will be of about 20 minutes. In the second stage, to which they will be admitted only if they have positively passed the first stage, they will be examined according to the rules given at point 2 above. The duration of this second stage will be of about 30 minutes. The final grade will result from the overall assessment of the student during the two stages.
[4] During the exam the students will not be allowed to consult books or notes, to use mobile phones or other communication devices, and more generally to use any technological device except those expressly authorized by the examination board. The use of calculators is allowed if not programmable.
Exam: Compulsory oral exam; Individual essay; Group project;
Mandatory oral exam with questions about the program taught at lessons and about the exercise developed by student, alternatively delivered as team project work or individual written work as detailed in the “Course structure” section. The oral exam aims at verifying that the student has acquired all the knowledges and abilities detailed in the "Expected learning outcomes" section.
Modalità di esame: Prova orale obbligatoria; Elaborato scritto individuale; Elaborato progettuale in gruppo;
The blended exam criteria are exactly identical to the online exam criteria, except that during the onsite exam the student will write and draw manually on paper and not digitally on the virtual screen.
Exam: Compulsory oral exam; Individual essay; Group project;
The assessment and grading criteria for the blended exam are the same as for the online exam, except that during the onsite exam the student will write and draw manually on paper and not by using digital tools.