Architecture | |||||
Bachelor | Length of the Programme: 4 | Number of Credits: 240 | TR-NQF-HE: Level 6 | QF-EHEA: First Cycle | EQF: Level 6 |
School/Faculty/Institute | Faculty of Arts, Design and Architecture | ||||
Course Code | ARC 331 | ||||
Course Title in English | Architectural Technology IV | ||||
Course Title in Turkish | Mimarlık Teknolojisi IV | ||||
Language of Instruction | EN | ||||
Type of Course | Flipped Classroom | ||||
Level of Course | Intermediate | ||||
Semester | Fall | ||||
Contact Hours per Week |
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Estimated Student Workload | 125 hours per semester | ||||
Number of Credits | 5 ECTS | ||||
Grading Mode | Standard Letter Grade | ||||
Pre-requisites | None | ||||
Co-requisites | None | ||||
Expected Prior Knowledge | None | ||||
Registration Restrictions | Only Undergraduate Students | ||||
Overall Educational Objective | To comprehend building technology’s integration into architectural projects, with a focus on the building envelope | ||||
Course Description | Architectural Technology 4 is a lecture course that is designed to be conducted in coordination with Architectural Design 5 studio course. It is set to create a platform to assess and develop appropriate technological components for the studio project, with the building envelope in focus. The course is based on lectures, enriched with studio activity, where a system and its components are developed for integration into the design. |
Course Learning Outcomes and CompetencesUpon successful completion of the course, the learner is expected to be able to:1) comprehend the conception and design of building envelope systems; 2) devise one’s experience on the design and integration of structural systems; 3) reflect competency on the design and integration environmental control systems in architecture. |
Program Learning Outcomes/Course Learning Outcomes | 1 | 2 | 3 |
---|---|---|---|
1) Ability to read, write and speak effectively in Turkish and English, equivalent to a B2 European Language Passport Level in English. | |||
2) Ability to question and interpret ideas considering diverse points of view; gather and use data, develop concepts related to people, places and the environment, and make individual decisions. | |||
3) Ability to use appropriate graphical methods including freehand and digital drawing techniques, (ECDL advanced) in order to develop ideas in addition to communicate the process of design. | |||
4) Ability to use fundamental principles of architectural design considering the place, climate, people, society as factors, and simultaneously express present principles in relevant precedents. | |||
5) Understanding of architectural principles belonging to global and local cultures shaped by the climatic, technological, socioeconomic, cultural factors, in addition to principles of historic preservation while developing architectural and urban design projects. | |||
6) Understanding the theories and methods used to describe the relationship between human behavior and physical environment; and concurrently understanding different needs, values, behavioral norms, social and spatial patterns of different cultures. | |||
7) Ability to apply various stages of design processes considering the client and user needs, which include space and equipment requirements besides site conditions and relevant laws and standards. | |||
8) Understanding the role of applied research in determining function, form and systems and their impact on human conditions and behavior. | |||
9) Understanding of the basic principles of static and dynamic structural behavior that withstand gravity and lateral forces, in addition to the evolution and applications of structural systems. | |||
10) Ability to apply the principles of sustainability in architectural and urban design projects that aim to preserve the natural and historic resources and provide healthful environments. | |||
11) Ability to apply the fundamental principles of building and safety systems such as mechanical, electrical, fire prevention, vertical circulation additionally to principles of accessibility into the design of buildings. | |||
12) Understanding the basic principles in the selection of materials, products, components and assemblies, based on their characteristics together with their performance, including their environmental impact and reuse possibilities. | |||
13) Ability to produce a comprehensive architectural project from the schematic design phase to design development phase, while integrating structural systems, life safety and sustainability principles. | |||
14) Understanding the principles of environmental systems such as energy preservation, active and passive heating and cooling systems, air quality, solar orientation, day lighting and artificial illumination, and acoustics; in addition to the use of appropriate performance assessment tools. | |||
15) Ability to choose appropriate materials, products and components in the implementation of design building envelope systems. | |||
16) Ability to understand the principles and concepts of different fields in multidisciplinary design processes and the ability to work in collaboration with others as a member of the design team. | |||
17) Understanding the responsibility of the architect to organize and lead design and construction processes considering the environmental, social and aesthetic issues of the society. | |||
18) Understanding the legal to responsibilities of the architect of the architect effecting the design and construction of a building such as public health and safety; accessibility, preservation, building codes and regulations as well as user rights. | |||
19) Ability to understand the ethical issues involved in the design and construction of buildings and provide services for the benefit of the society. In addition to the ability to act with social responsibility in global and local scales that contribute to the well being of the society. | |||
20) Understanding the methods for competing for commissions, selecting consultants and assembling teams, recommending project delivery methods, which involve financial management and business planning, time management, risk management, mediation and arbitration. |
N None | S Supportive | H Highly Related |
Program Outcomes and Competences | Level | Assessed by | |
1) | Ability to read, write and speak effectively in Turkish and English, equivalent to a B2 European Language Passport Level in English. | N | |
2) | Ability to question and interpret ideas considering diverse points of view; gather and use data, develop concepts related to people, places and the environment, and make individual decisions. | H | HW |
3) | Ability to use appropriate graphical methods including freehand and digital drawing techniques, (ECDL advanced) in order to develop ideas in addition to communicate the process of design. | S | |
4) | Ability to use fundamental principles of architectural design considering the place, climate, people, society as factors, and simultaneously express present principles in relevant precedents. | H | HW |
5) | Understanding of architectural principles belonging to global and local cultures shaped by the climatic, technological, socioeconomic, cultural factors, in addition to principles of historic preservation while developing architectural and urban design projects. | S | |
6) | Understanding the theories and methods used to describe the relationship between human behavior and physical environment; and concurrently understanding different needs, values, behavioral norms, social and spatial patterns of different cultures. | S | |
7) | Ability to apply various stages of design processes considering the client and user needs, which include space and equipment requirements besides site conditions and relevant laws and standards. | S | |
8) | Understanding the role of applied research in determining function, form and systems and their impact on human conditions and behavior. | S | HW |
9) | Understanding of the basic principles of static and dynamic structural behavior that withstand gravity and lateral forces, in addition to the evolution and applications of structural systems. | H | HW |
10) | Ability to apply the principles of sustainability in architectural and urban design projects that aim to preserve the natural and historic resources and provide healthful environments. | H | HW |
11) | Ability to apply the fundamental principles of building and safety systems such as mechanical, electrical, fire prevention, vertical circulation additionally to principles of accessibility into the design of buildings. | S | |
12) | Understanding the basic principles in the selection of materials, products, components and assemblies, based on their characteristics together with their performance, including their environmental impact and reuse possibilities. | H | HW |
13) | Ability to produce a comprehensive architectural project from the schematic design phase to design development phase, while integrating structural systems, life safety and sustainability principles. | S | |
14) | Understanding the principles of environmental systems such as energy preservation, active and passive heating and cooling systems, air quality, solar orientation, day lighting and artificial illumination, and acoustics; in addition to the use of appropriate performance assessment tools. | H | HW |
15) | Ability to choose appropriate materials, products and components in the implementation of design building envelope systems. | H | HW |
16) | Ability to understand the principles and concepts of different fields in multidisciplinary design processes and the ability to work in collaboration with others as a member of the design team. | S | |
17) | Understanding the responsibility of the architect to organize and lead design and construction processes considering the environmental, social and aesthetic issues of the society. | S | |
18) | Understanding the legal to responsibilities of the architect of the architect effecting the design and construction of a building such as public health and safety; accessibility, preservation, building codes and regulations as well as user rights. | S | |
19) | Ability to understand the ethical issues involved in the design and construction of buildings and provide services for the benefit of the society. In addition to the ability to act with social responsibility in global and local scales that contribute to the well being of the society. | S | |
20) | Understanding the methods for competing for commissions, selecting consultants and assembling teams, recommending project delivery methods, which involve financial management and business planning, time management, risk management, mediation and arbitration. | S |
Prepared by and Date | KÜRŞAD ÖZDEMİR , May 2022 |
Course Coordinator | AKTS1 |
Semester | Fall |
Name of Instructor | Öğr. Gör. AHMET ERGELEN |
Week | Subject |
1) | INTRODUCTION TO COURSE (INITIAL EXERCISE) |
2) | BUILDING ENVELOPE (BE) - ARCHITECTURE (CONCEPT, FORMS, ENVIRONMENT) |
3) | BE - MATERIALS (INDUSTRIAL) |
4) | BE - MATERIALS (GELENEKSEL) |
5) | BZ - SUNUMLAR |
6) | BE - LAYERS |
7) | BE - LAYERS |
8) | BE - ENERGY (ENVIRONMENTAL CONTROL & ENERGY GAIN SYSTEMS, PERFORMANCE) |
9) | BE - ENERGY (ENVIRONMENTAL CONTROL & ENERGY GAIN SYSTEMS, PERFORMANCE) |
10) | CASE STUDIES - DISCUSSION - STUDIO MASTERS’ VISIT |
11) | CASE STUDIES - DISCUSSION - STUDIO MASTERS’ VISIT |
12) | CASE STUDIES - DISCUSSION - STUDIO MASTERS’ VISIT |
13) | MATERIALS - DETAIL - ELEMENTS (STUDIO REVIEWS) |
14) | MATERIALS - DETAIL - ELEMENTS (STUDIO REVIEWS) |
15) | Final Assessment Period |
16) | Final Assessment Period |
Required/Recommended Readings | • Silver, McLean, Whitsett (2013) Introduction to Architectural Technology, Laurence King, London • Allen, Zalewski(2010) Form and Forces, Wiley, NJ • Meistermann A (2010) Taşıyıcı Sistemler, YEM Yayın, İstanbul • Hegger, M., Drexler, H. And Zeumer, M. (2007) Basics Materials (Basics Series), Birkhäuser GmbH. • Lewis, P., Tsurumaki, M. and Lewis, D.J. (2016) Manual of Section. Princeton University Press. | |||||||||||||||
Teaching Methods | Architectural Technology 4 is conducted in coordination with Architectural Design 5 course, set to form a body of technology-design integration. The teaching method is based on knowledge transfer - discussion-development sequence, facilitated by active learning approach of flipped classroom. The assessment of technological components in Arc. Technology course provides practical feed-backs for integration into the design work. Taking initiatives and responsibility in the design development enables the participant to take part in active learning. | |||||||||||||||
Homework and Projects | 1 final, 1 mid-term, 3 Sketchbook Assignments | |||||||||||||||
Laboratory Work | - | |||||||||||||||
Computer Use | Yes | |||||||||||||||
Other Activities | - | |||||||||||||||
Assessment Methods |
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Course Administration |
ozdemirku@mef.edu.tr Student participation will be essential for this course. 80% attendance is compulsory for a successful outcome. Academic Dishonesty and Plagiarism: YÖK Disciplinary Regulation. |
Activity | No/Weeks | Hours | Calculation | ||||
No/Weeks per Semester | Preparing for the Activity | Spent in the Activity Itself | Completing the Activity Requirements | ||||
Course Hours | 14 | 3 | 3 | 2 | 112 | ||
Project | 1 | 2 | 1 | 3 | |||
Final Examination | 1 | 8 | 2 | 10 | |||
Total Workload | 125 | ||||||
Total Workload/25 | 5.0 | ||||||
ECTS | 5 |