MASONRY ENGINEERING

Course Information
TitleΜΗΧΑΝΙΚΗ ΤΗΣ ΤΟΙΧΟΠΟΙΙΑΣ / MASONRY ENGINEERING
CodeΕ21
Interdepartmental ProgrammeDPMS "Prostasía, Syntīrīsī kai Apokatástasī Mnīmeíōn Politismoý" 2024 éōs sīmera
Collaborating SchoolsArchitecture
Civil Engineering
Rural and Surveying Engineering
Electrical and Computer Engineering
Mechanical Engineering
Chemical Engineering
School of Spatial Planning and Development
Cycle / Level2nd / Postgraduate
Teaching PeriodSpring
CommonNo
StatusActive
Course ID20002473

Class Information
Academic Year2024 – 2025
Class PeriodSpring
Faculty Instructors
Weekly Hours2
Total Hours12
Class ID
600266442
Course Type 2021
Specialization / Direction
Course Type 2016-2020
  • Scientific Area
Course Type 2011-2015
Specific Foundation / Core
Mode of Delivery
  • Face to face
Digital Course Content
Language of Instruction
  • Greek (Instruction, Examination)
Prerequisites
General Prerequisites
In order for a student to be able to follow and understand the course, he should have knowledge: • mechanics of materials and structural elements, • the dynamic response of load-bearing masonry structures • the anti-seismic design of load-bearing masonry structures • the basic principles of repair and stengthening of existing structures;
Learning Outcomes
Upon successful completion of the course, students will be able to: • know types of load-bearing masonry structures • calculate the bearing capacities of monumental structures • propose and design methods for the restoration and reinforcement of masonry structures against seismic actions • use modern computer programs • understand the European regulations for masonry and earthquake
General Competences
  • Apply knowledge in practice
  • Make decisions
  • Design and manage projects
Course Content (Syllabus)
Structural behaviour of masonry structures A' SPECIALIZATION Ε21 The behaviour of masonry structures is examined when they are subjected to static forces and seismic actions. Initially, the mechanical characteristics of the constituents (mortar and natural stone or stone) are presented. Next. the behaviour of typical structural elements made of masonry is examined when they subjected to dominant either in-plane or out-of-plane state of stress. This is done by presenting the dominant limit-states and the corresponding modes of failure. The corresponding principles of current design procedures are outlined towards defining the most important bearing capacities of typical structural elements. The ways and the limitations that these design procedures can be linked to cultural heritage structures are also presented together with the relevant laboratory or in-situ capabilities. Finally, the behaviour of masonry structures when subjected to static loads and seismic actions is examined by portraying the transfer of the relevant forces to the ground. Typical damage to cultural heritage masonry structures when subjected to static loads and seismic actions are presented and discussed. The methodology for assessing the demands that arise to the primary masonry structural elements is also described employing numerical methods. Description of the content of this subject matter CONSTITUENT MASONRY MATERIALS: The mechanical characteristics of the mortar and masonry units (made of clay or natural stone) are presented together with their interaction. This behaviour is examined for simple loading conditions employing laboratory capabilities. The behaviour of the mortar and masonry units at their contact interface is examined when simple assemblies are subjected to a combination of normal and shear state of stress at such an interface. The modes of failure and the relevant failure criteria are presented together with the corresponding laboratory capabilities. MASONRY STRUCTURAL ELEMENTS-1: The in-plane and out-of-plane behavior of masonry structural elements is examined when the structure which they belonged to is subjected to combined static loads and seismic actions. The corresponding limit states are described due to stress fields that include either in-plane normal and shear stresses or out-of-plane normal and flexural stresses. The corresponding failures modes are also presented and linked with the mechanical behaviour of mortar and masonry units and their interaction at the mortar joints. These modes of failure are next combined with relevant failure criteria. The limit-state behaviour to in-plane axial compression, shear, diagonal tension or out-of-plane flexure with compression is presented together with the corresponding laboratory testing. Finally, the influence of wooden or metallic inserts is also presented. MASONRY STRUCTURAL ELEMENTS-2: The basic principles of current procedures for the design of structural masonry elements are presented. The relevant methodology of defining the bearing capacity of masonry structural elements for the in-plane and out-of plane demands resulting from load combinations is also presented. The application and its limitations for using such current design procedures for masonry cultural heritage structures are also presented. Laboratory and in-situ methodologies and procedures for measuring the masonry mechanical properties towards quantifying the bearing capacity of masonry structural elements is also examined employing destructive or non-destructive testing and simple or complex laboratory or in-situ procedures. MASONRY STRUCTURAL SYSTEMS: The behaviour and the response of masonry structural systems is examined when subjected to static loads and seismic forces together with the transfer of the resulting seismic forces and the development of in-plane or/and out of plane demands to the structural elements or their connections. The importance of the behaviour of the structural system as a whole is described underlining the connections of the vertical structural elements between each other and with the floors, the roof and the foundation. The methodologies for finding the damands that arise at critical areas together eith the formation of simulations of the behaviour employing laboratory or numerical procedures are also presented. The ways these demands appear to form at the level of the structural elements is also presented together with the ways that such results can be utilized to check the performance of this type of structural formations. Students are invited to evaluate the course and make suggestions for its improvement.
Keywords
mechanical properties, earthquake analysis, monuments, restoration, reinforcement
Educational Material Types
  • Notes
  • Slide presentations
Use of Information and Communication Technologies
Use of ICT
  • Use of ICT in Course Teaching
  • Use of ICT in Laboratory Teaching
  • Use of ICT in Communication with Students
  • Use of ICT in Student Assessment
Description
The student will use information and communication technologies in all lectures of the course, both with his professors and colleagues. The exercises will make use of complex computational programs.
Course Organization
ActivitiesWorkloadECTSIndividualTeamworkErasmus
Lectures12
Laboratory Work20
Reading Assigment25
Exams3
Total60
Student Assessment
Description
Students are evaluated by a written exam
Student Assessment methods
  • Written Exam with Extended Answer Questions (Formative, Summative)
  • Written Exam with Problem Solving (Formative, Summative)
Bibliography
Additional bibliography for study
Κων/νος Σπυράκος, "Κατασκευές από τοιχοποιία. Αποτίμηση και επεμβάσεις για σεισμικά φορτία" Φυλλίτσα Καραντώνη, "ΚΑΤΑΣΚΕΥΕΣ ΑΠΟ ΤΟΙΧΟΠΟΙΙΑ, ΣΧΕΔΙΑΣΜΟΣ ΚΑΙ ΕΠΙΣΚΕΥΕΣ" Manos, G.C.; Katakalos, K.; Soulis, V.; Melidis, L., “Earthquake Retrofitting of “Soft-Story” RC Frame Structures with RC Infills”. Appl. Sci. 2022, 12, 11597. https://doi.org/10.3390/app122211597 Katsamakas, A.; Papanikolaou, V. A.; Thermou, G.; Katakalos, K.; “EXPERIMENTAL AND NUMERICAL INVESTIGATION OF THE UNIAXIAL COMPRESSION BEHAVIOR OF SRG-JACKETED R/C COLUMNS”, Structures, Elsevier, 2022, https://doi.org/10.1016/j.istruc.2022.07.089 Georgantzia, E.; Nikolaidis,T.; Katakalos, K.; Tsikaloudaki, K.; Iliadis, T., “Dynamic Performance Analysis by Laboratory Tests of a Sustainable Prefabricated Composite Structural Wall System.” Energies 2022, 15, 3458. https://doi.org/10.3390/en15093458 Manos, G.C., Katakalos, K.B., “Reinforced Concrete Beams Retrofitted with External CFRP Strips towards Enhancing the Shear Capacity”, Appl. Sci. 2021, 11(17), 7952; https://doi.org/10.3390/app11177952 Manos, G.C., Melidis, L., Katakalos, K., Kotoulas, L., Anastasiadis, A., Chatziastrou, C., “Out-of-Plane Flexure of Masonry Panels with External Thermal Insulation.”, Buildings 2021, 11, 335. https://doi.org/10.3390/buildings11080335 Manos, G.C., Melidis, L., Katakalos K., Kotoulas, L., Anastasiadis, A., Chatziastrou, C., “Masonry panels with external thermal insulation subjected to in-plane diagonal compression”, Case Studies in Construction Materials, Volume 14, June 2021, e00538, https://doi.org/10.1016/j.cscm.2021.e00538 Katakalos, K.V., Arnaoutis, I.A., Manos, G.C., “Identification of failure mechanism of the ottoman bath (hamam) at Apollonia (Pazarouda) exploitation of historical data”, Case Studies in Construction Materials, Volume 14, June 2021, https://doi.org/10.1016/j.cscm.2020.e00475 Katakalos Konstantinos, Manos George, Papakonstantinou Christos. 2019. "Seismic Retrofit of R/C T-Beams with Steel Fiber Polymers under Cyclic Loading Conditions" Buildings 9, no. 4: 101, https://doi.org/10.3390/buildings9040101 G.C. Manos, V. Soulis, K. Katakalos, G. Koidis, “Numerical and experimental study of seismic retrofitting for one-bay single-storey reinforced concrete (R/C) frames with an encased R/C panel” Computational Methods and Experimental Measurements XVI, 2013, Vol. 55, Online ISSN: 1743-355X, Print ISBN: 978-1-84564-732-2, pp. 399-411, https://10.2495/CMEM130331
Last Update
30-12-2023